Tiburzi, Andrea

The present invention relates to a method of predicting the maintenance of the clamping of a wooden piece (P) on a machining machine (1), which comprises tools (U<a,b,...,g,...,n>) operated relative to said piece (P), and a processing unit (45). Said method comprises steps of: A. programming a machining of the piece (P); B. placing the piece (P) on support areas (20<a,b,...,q,...,n>); C. obtain, from formulas and/or databases, the forces ( F<a,b,...,g,...,n>) exerted by said tools on said piece (P); D. determining fictitious reactions ( T<a ,b,...,n,...,n>) which, exercised by respective reaction areas (10<a,b,...,h,...,n>) selected from said areas for support (20<a,b,...,q,...,n>), ensure the locking of the piece (P); E. checking whether each fictitious reaction ( T<a,b,..,h,...,n>) determined, is compatible with a limit value that can be delivered by the respective reaction area (10<a,b,...,h,...,n>); F. performing a machining operation on said piece (P), using said machine (1). The present invention also relates to a processing machine (1).

The present invention relates to a machining center (1), for the machining of workpieces (P), such as panels made of wood, fiberglass, plywood, plastic, and similar materials, comprising: a worktable (2), on which said panels (P) can be placed for machining; a portal (3) movable with respect to said worktable (2) in an advancement direction (A) for machining the workpiece (P); a machining unit (31) fixed to said portal (3), for machining said panels (P) placed on said worktable (2); and a cleaning assembly (4) integrated with said portal (3), so as to be moved together with said portal (2).The present invention also relates to a method for machining and cleaning a workpiece (P).

The present invention relates to a method for attaching a pre-glued joint dowel (S) to a panel (P).Said pre-glued joint dowel (S) is a joint dowel on which an amount of glue, activatatable by an activating substance, has been applied, wherein the activating substance is a gel or a sol or a foam or an emulsion,Said method comprising the following steps:A) creating a hole (H) on a surface of said panel (P)B) inserting said activating substance (G) into said hole (H) to activate at least a portion of said amount of glue in contact with said activating substance;C) inserting said pre-glued joint dowel (S) into said hole (H) such that an end portion of said pre-glued joint dowel (S) is received by said hole (H), so that an amount of said activating substance (G) contacts a portion of said amount of glue and activates said portion of said amount of glue, allowing said pre-glued joint dowel (S) to be attached to said panel (P).

The present invention relates to a dynamic parcel conservation and distribution system (1) for buildings (E), comprising a distribution assembly (2), comprising a supporting frame (21), intended to be installed on a building (E), one or more boxes (22), each one having a selectively openable door (23), and moving means (24) for moving said box (22) along said supporting frame (21); and control means (3), comprising a central control unit (31), and a peripheral unit (32) operatively connected to said central control unit (31) and to said moving means (24), for moving said boxes (22) to correspond to positions in said building (E) for loading and unloading of said box (22); The present invention also relates to an operating method of the storage and distribution system (1).

A negative electrode for a zinc battery of the present invention includes a negative electrode mixture containing zinc oxide. In an X-ray diffraction pattern of the negative electrode mixture, the ratio (I<002>/I<101>) of the peak intensity (I<002>) of the (002) plane derived from the zinc oxide to the peak intensity (I<101>) of the (101) plane derived from the zinc oxide is 0.4 or more.

The present invention relates to a sander machine (1) for sanding a piece (P), such as panels made of wood, plastic, fiberglass, and the like, comprising: a frame (11) having an entrance (111) for the entry of a piece (P) to be sanded, and an exit (112) for the exit of the sanded piece (P), wherein the piece (P) is moved from said entrance (111) to said exit (112) along an advancement direction (A); a main sanding group (2) positioned between said entrance (111) and said exit (112) for sanding the piece (P); and a transverse sanding group (3) positioned between said entrance (111) and said exit (112),The present invention also relates to a transverse sanding group (3) and a method (100) for cooling an abrasive belt (33) in a sander machine (1).

Systems, methods, and apparatuses for providing connection performance to a computing device. One method includes estimating, by one or more edge routers, a connection performance from the computing device to a destination subnet group through one or more links between computing device and the one or more edge routers, determining, by the one or more edge routers, one or more connection performance scores for the destination subnet group based on the estimated connection performance from the computing device to the destination subnet group through each of the one or more links, and communicating, by the one or more edge routers, routing guidance to the computing device based on the one or more connection performance scores of each of the one or more links, wherein the routing guidance provides edge router selection information to the computing device.

Provided are a method and a process for preparing MHP via controlled crystallization in hydrometallurgical processing of laterite nickel ore, belonging to the technical field of laterite nickel ore hydrometallurgy. The method comprises: determining a nuclei count of multiple crystal nuclei after nucleation reaction of a solution after iron and aluminum removal, based on nucleation reaction conditions; determining an average particle size of multiple crystal grains after primary growth of the multiple crystal nuclei, based on primary growth reaction conditions; and determining a predicted particle size distribution of agglomerated crystal grains after secondary agglomeration and growth of the multiple crystal grains, based on the Metropolis algorithm, the nuclei count, and the average particle size. According to the predicted particle size distribution results, the present application adjusts reaction conditions for the nucleation reaction and primary growth reaction to control the nuclei count and average particle size, thereby obtaining high-performance MHP products with optimized particle size distribution, providing guiding significance for MHP crystallization processes.

A food trolley (100) for transporting foods and similar, comprising a frame (10) defining a storage compartment (1) for the containment of said foods; a moving system (2) connected to said frame (10) to enable the movement of said food trolley (100); and a release braking system (3) comprising braking means (56) acting on said moving system (2), and an actuator assembly (5) comprising an actuator member (31) capable of assuming a release position, in wherein it activates said release braking means (3), locking said moving system (2), and a working position, when grasped by a user to move said trolley (100), in wherein said trolley (100) deactivates said release braking system (3), so as to release said moving system (2).

Provided are a post-inflation apparatus and a tire manufacturing device. The post-inflation apparatus includes a frame (100), an upper crossbeam mechanism (200), a lower crossbeam mechanism (300), a leadscrew (1), a driving nut (2), a drive assembly (3), and a limiting assembly (4). The lower crossbeam mechanism (300) is disposed on the frame (100), and the upper crossbeam mechanism (200) and the lower crossbeam mechanism (300) cooperate to inflate a tire. The leadscrew (1) is slidably disposed on the frame (100) along a vertical direction, and the upper crossbeam mechanism (200) is disposed at a lower end of the leadscrew (1). The driving nut (2) is rotatably disposed on the frame (100) and threadedly engages with the leadscrew (1). The drive assembly (3) is disposed on the frame (100) and configured to drive the driving nut (2) to rotate forward and backward to drive the leadscrew (1) to ascend and descend. The limiting assembly (4) is disposed on the frame (100) and configured to limit rotation of the driving nut (2).