Studio Torta S.p.A

The invention relates to an article providing system (1) including: a first acquisition means which acquires position information of a user; a first presentation means which presents a product; a provision means which provides the product which is presented; and a control means which controls the first acquisition means, the first presentation means, and the provision means. The article providing system (1) enables provision of the product when the user is located in a first region.

A thermal barrier fixed to a surface of a material exposed to high temperatures comprising a bond coat layer fixed to the surface of the material to be protected and a thermal insulating ceramic layer fixed to the bond coat layer. The bond coat comprises a first and a second layer distinct from each other and both composed of a MCrAlY+N alloy; wherein M is selected from Ni and Co, and N is selected from the group composed of Re, Ir, Si, Ta and Pt; the first and second layers have a different % by weight of the elements.

A grinding mill (1) having a main body (2), which delimits a grinding chamber (4) with a longitudinal symmetry axis (A); an operating assembly for rotating said main body (2); a coating system (8) for covering at least part of the grinding chamber (4) and a fixing system (9) for connecting the coating system (8) to the main body (2); the coating system (8) comprises:a plurality of side-by-side panels (11); a plurality of guiding section bars (15), between pairs of side-by-side panels (11) each comprising at least one connecting portion (16); a plurality of interchangeable inserts (17) each having at least one shaped seat (18) to create a releasable shape coupling with the connecting portion (16).

A metallization method for polymeric substrates, comprising: (i) a mixing step, in which a polymeric compound is mixed with a graphene- and/or carbon nanotubes-based filler to obtain a conductive polymeric material comprising from 1 to 40% by weight of graphene- and/or carbon nanotubes-based filler; (ii) a forming step, in which the conductive polymeric material is molded into a shape of the polymeric substrate to be metallized; (iii) a plating step, in which the conductive polymeric substrate is subjected to electrochemical deposition or chemical plating.

This disclosure relates to method and system for generating 2D views of 3D CAD models. The method may include receiving a 3D CAD model in B-rep form and a user selection corresponding to one or more 2D views of the 3D CAD model. The method may further include creating a prompt based on the 3D CAD model and the user selection. The prompt may include the 3D CAD model and predefined instructions corresponding to the one or more 2D views to be generated. The method may further include inputting the prompt to an optimized and compressed domain adapted task down streamed LLM. The optimized and compressed domain adapted task down streamed LLM is obtained through multi-stage pre-training of a foundation LLM. The method may further include generating a 2D CAD model in B-rep form corresponding to each of the one or more 2D views of the 3D CAD model.

A turbocharger for road vehicles has a turbine (2) provided with a first impeller (6) engaged in a first containing casing (3) in a rotary manner, a compressor (7) provided with a second impeller (11) engaged in a second containing casing (8) in a rotary manner, and a transmission shaft (12) coupled to the impellers (6, 11) of the turbine (2) and the compressor (7) in an angularly fixed manner and engaged in a rotary manner through at least one support bearing (13, 14); the impeller (11) of the compressor (7) being axially limited by an end face (16) facing the second containing casing (8) and provided with at least one tooth (17, 19) configured to generate a pressure drop in an air flow fed between the impeller (11) and the containing casing (8) of the compressor (7).

Tool (14) wear status monitoring software (1) being loadable in, and executable by, electronic processing resources. The tool (14) wear status monitoring software (1) being designed to cause, when executed, said electronic processing resources to become configured to receive, from one or more sensors (11) arranged within a working environment (10), one or more acoustic signals indicative of acoustic quantities of a sound caused by the operation of a tool (14) within said working environment (10). In addition, the tool (14) wear status monitoring software (1) is designed to cause, when executed, said electronic processing resources to become configured to compute (block 4) a graphical representation (6), in particular a spectrogram, of the acoustic quantities of the sound caused by the operation of said tool (14) based on the received acoustic signals indicative of said acoustic quantities. The tool (14) wear status monitoring software (1) is further designed to cause, when executed, the electronic processing resources to become configured to determine a wear status (9) of the tool (14) by running a predictive neural model (7) on the computed graphical representation (6); the predictive neural model (7) being trained (block 8) to predict a wear status (9) to be associated to a graphical representation (6) of acoustic quantities of a sound. Furthermore, the tool (14) wear status monitoring software (1) is designed to cause, when executed, the electronic processing resources to become configured to provide an output based on the determined wear status (9) of the tool (14).

A snow blade for grooming ski slopes and configured to be installed on a snow grooming vehicle and advanced in a forward direction (D1) to vary the distribution of snow along the ski slope, and has a frame (2) configured to be connected to a snow grooming vehicle in a selectively orientable manner with respect to the snow grooming vehicle; a front face (3), which is supported by the frame (2), extends along a direction transverse (D2) to the forward direction (D1), is configured to move a mass of snow, and has a concave front face (4); two side wings (12) selectively adjustable relative to the frame (2) and front face (3); and at least one actuator (5) to vary the configuration of the front face (3) and the degree of concavity of the front face (4).

An in-bag detection method computes a plurality of features from sensors data and, through an AI model, performs a classification of the state of motion of an electronic device based on the plurality of features. The method then performs a meta-classification over an output of the AI model by using counters for each of the values that the output can assume to check for consistency of the output. Once the counters of the meta-classifier of the output of the AI model have reached consistency, an inbuilt stability mechanism is triggered. The inbuilt stability mechanism does not require allocation of timers or other external resources. Therefore, instead of calculating the entire plurality of features needed by the AI models, only a subset of features related to motion is calculated.

A modular drain unit (1), in particular for making underground basins, comprises a base plate (2) and a plurality of pillars (3) extending from a flat face (4) of the base plate (2) and are integrally joined to the base plate (2) along respective root edges (11); the pillars (3) are arranged in rows and columns on the base plate (2) and are arranged in groups (20) of pillars (3), each group (20) being formed by a plurality of pillars (3) arranged side by side on at least one row and at least one column; the pillars (3) of each group (20) are at a predetermined distance from each other along the rows and columns, and pillars (3) of adjacent groups (20) are arranged at a greater distance than the distance between pillars (3) of the same group (20); the pillars (3) of each group (20) are joined by ribs (21) extending from said face (4) of the base plate (2) and joining respective lateral walls (16) of facing pillars (3) of the group (20).