Torner, Juncosa I Associats, SL

Wall assembly comprising a first layer (10) and a second layer (20), attached to opposed sides of an intermediate layer (30) made of an insulant material; an inner load bearing structure (40) embedded in the intermediate layer (30), wherein the first layer (10) comprises multiple first panels (11), arranged coplanar, laterally adjacent to and in contact with each other at their peripheral edges (12), and the second layer (20) comprises multiple second panels (21), arranged coplanar, laterally adjacent to and in contact with each other at their peripheral edges (22); the intermediate layer (30) comprises one third layer, or two overlapped and attached third layers, each being made of multiple insulant panels (31) arranged coplanar, laterally adjacent to and in contact with each other at their peripheral edges (32).

A computer implemented method, a system and computer program for time-domain phasor simulation of a power grid in an EMT simulation software are provided. The method a) builds a grid impedance matrix from passive electrical elements; b) separates the grid impedance matrix into real and imaginary parts; c) computes an inverse matrix of the real and imaginary parts of the grid impedance matrix, the inverse of the real part being named conductance matrix and the inverse of the imaginary part being named susceptance matrix; d) computes nodal current injections from active elements or sources; e) separates the computed nodal current injections into real and imaginary parts; f) executes (extended) nodal analysis algorithm on the conductance matrix with the real and imaginary parts of the current injection and on the susceptance matrix with the real and imaginary parts of the current injection, obtaining four voltage vectors; and g) builds a complex nodal voltage vector using the four voltage vectors.

The present disclosure relates to a thermoelectric device comprising: a type n semiconductor and a type p semiconductor, the type n semiconductor and the type p semiconductor having two different contact portions, four conductive layers, and three metallic elements, wherein each of the two contact portions of the type n semiconductor are in contact with a first conductive layer and a second conductive layer, each of the two contact portions of the type p semiconductor are in contact with a third conductive layer and a fourth conductive layer, a first metallic element is in contact with the first conductive layer and the third conductive layer, the first conductive layer being in contact with the type n semiconductor, the third conductive layer being in contact with the type p semiconductor, a second metallic element is in contact with the second conductive layer, the second conductive layer being in contact with the type n semiconductor, and a third metallic element is in contact with the fourth conductive layer, the fourth conductive layer being in contact with the type p semiconductor.

It is disclosed a device for dispensing liquid to a water-soluble pouch comprising: a fluid inlet; a fluid outlet; an elongated body defining a longitudinal axis of the device, the elongated body having a fluid passage therein extending from the fluid inlet to the fluid outlet; a fluidly actuated valve for opening and closing the fluid outlet, the valve having a fluid cylinder housed in the elongated body; wherein the fluid inlet, the fluid passage, the fluid cylinder and the fluid outlet are axially arranged with respect to the longitudinal axis; and wherein the fluid passage defines a fluid chamber, having an inlet and an outlet, enclosing the fluid cylinder. It is also disclosed a method for dispensing liquid to water soluble pouches, a cluster of two or more devices for dispensing liquid to water soluble pouches and a machine for forming and filing pouches made of water-soluble film.

A flow-increasing drain head and a drain valve are disclosed. The flowrate-increasing drain head includes a body (110), the body (110) defines a drain hole (111), and a first diversion structure (112) is arranged corresponding to the drain hole (111). The first diversion structure (112) includes a plurality of diversion trenches (1121) distributed at intervals around an axis of the drain hole (111), and the diversion trenches (1121) are configured for driving liquid passing through the diversion trenches (1121) to form a downward rotating motion to increase a flowrate.

A flowrate-increasing drain valve is disclosed, which includes a drain body (100) provided with a vertically extending drain channel (110); a switch piece (200) movably connected to the drain body (100) and provided with a sealing sheet (210) configured to be moved to open or close an upper end port of the drain channel (110); and a diversion piece (300) arranged on the switch piece (200) and located below the sealing sheet (210), a plurality of diversion trenches being distributed at intervals around an axis, and the diversion trenches configured for driving water to form a downward rotating motion to increase a water flowrate.

A method for producing a 3D printed bone graft and a 3D printed bone graft are proposed. The method comprises a) preparing a photocurable composite resin composition by mixing a photocurable biocompatible polymeric resin, comprising one or more monomers/oligomers and a photoinitiator, with a hydrolysable calcium phosphate-based ceramic material; b) manufacturing a 3D printed bone graft using the photocurable resin composition through 3D printing with a light-based 3D printing system; c) cleaning and removing uncured resin or particles from the 3D printed bone graft by ultrasonic rinsing in a solvent; d) providing consolidation to the 3D printed bone graft by: d1) sublimating liquid contained in the resin by freeze-drying the manufactured 3D printed bone graft; and/or d2) hydrolyzing the hydrolysable calcium phosphate-based ceramic material to calcium deficient hydroxyapatite (CDHA).

A method and system to prove a user's geolocation are provided. The method comprises obtaining a geoposition of a user by a geoposition device; carrying out a proximity validation between the geopositioning device and a mobile device using a Bluetooth connection; upon successful proximity validation, a computer server receiving the geoposition of the user and the geoposition of the mobile device using a cryptographic protocol; receiving, by the mobile computing device, from the computer server, a notification regarding successful geoposition validation with the geoposition device; recording, in real time, a voiced video of the user by a camera and microphone of the mobile computing device, the voiced video being recorded while the user is uttering a given phrase or word; detecting a user's unframing movement by the mobile computing device; and creating, by the mobile computing device, a geo-evidence for the user using the geoposition of the mobile computing device and the recorded voiced video.

Scan tag and scan body with scan tag for enhancing accuracy in intraoral scanning procedures, the scan tag (1) including an attachment portion (10) including an attachment configuration (11), concentric with a first axis (1A), the attachment configuration (11) being attachable to a scan body (2) couplable to a patient implant, and an elongated portion (20) projecting laterally from the attachment portion (10) along a second axis (2A) transverse to the first axis (1A); wherein at least the elongated portion (20) is made of a scan-opaque material; and wherein at least a base region (21) of the elongated portion (20) adjacent to the attachment portion (10) is made of a flexible material configured to allow a bending/flexing of the elongated portion (20) with respect to the attachment portion (10) from an undeformed position to a deformed position.

An electronic device is proposed. It comprises an insulating substrate; a multi-terraced nanosheet; and an electrode deposited over each terrace of the multi-terraced nanosheet. The multi-terraced nanosheet comprises at least three terraces, such that a first electrode is deposited over a first terrace, a second electrode is deposited over a second terrace, and a third electrode is deposited over a third terrace. The first terrace and the third terrace have similar thickness, which are thinner or thicker than 10 nanometers, and the second terrace has a different thickness. The first electrode is configured to act as collector and the third electrode is configured to act as emitter, or vice versa, and the second electrode is configured to act as base, whose length is substantially equal to a diffusion length of charge carriers.