Sets of structural parts (CPE) designed for the composition of Architectural didactic models (MD) for learning or research carried out by students, teachers, engineers, architects or anyone else interested in the subject; (CPE) comprise structural elements vertical and transverse sections (40) forming the pillars and beams and formed by springs (41) and (42) are cylindrical and helical, the traction and compression of which deformations (d1) or displacements (d2) of the structures (MD); (ii) metal cables (50) which comprises bracing and struts; (iii) plates (60) simulating slabs, walls and coverings made of plastic for horizontal locking, vertical and inclined between the elements (40) and (50) so as to simulate slabs, walls and roofs of a building; and (iv) groupings of links (AG), also, formed by labeled bonds (70) comprising balls metallic (71) for receiving the magnets (IM) of the elements (40) and (50) or other magnets (IM) of other structural parts (CPE) and rigid connections (90) configured by trapezoidal-shaped parts (91) where in at least that in three flat faces 91a, 91b and 91c are provided housings (r1) for magnet assembly (IM); the assembly of the parts CPE 30, 40, 50, 60 and (70) and inclusion of the base connection pieces (80), rigid links (90) and links (100) comprises a kit (10) mounted in a compact housing (20) with a hinged lid (21) which includes an instruction manual (T1) where possible structures obtained with the arrangement of the parts Structural Funds (FPC).

Embodiments generally relate to a computer implemented method of facilitating learning, the method comprising receiving, at a computing device, data indicative of a user profile, the user profile being associated with a user level; receiving, at a computing device, data indicative of user interaction with an identification tag, wherein the data comprises an identification code; identifying an object type associated with the identification code; determining an interaction response level based on the user level associated with the user profile; determining a response to be delivered to the user based on the object type and the interaction response level; and causing the response to be delivered to the user.

Embodiments generally relate to a computer implemented method of facilitating learning, the method comprising receiving, at a computing device, data indicative of a user profile, the user profile being associated with a user level; receiving, at a computing device, data indicative of user interaction with an identification tag, wherein the data comprises an identification code; identifying an object type associated with the identification code; determining an interaction response level based on the user level associated with the user profile; determining a response to be delivered to the user based on the object type and the interaction response level; and causing the response to be delivered to the user.

A circuit training apparatus for training students to understand electrical circuits includes a body member that includes a front face having a peripheral edge and a plurality of side walls defining an interior area and a dial opening. The apparatus includes a battery for powering the circuits. A circuit board is positioned in the body member, the circuit board having a plurality of circuit areas etched thereon and having a plurality of current lead lines electrically connecting the battery and circuit areas, respectively. A rotary selection device is electrically connected to the circuit board and battery and includes a dial indicative of a circuit selection coupled to an electrical switch for directing current from the battery to a respective current lead line associated with the circuit selection. The dial of the rotary selection device extends away from the circuit board and through the dial opening for accessibility to a user.

An anthropomorphic test device utilizes a mounting mechanism for coupling a hollow member including a simulated flesh to a support structure, with the simulated flesh including a foam core portion covered with a skin portion. The mounting mechanism includes inserts, such as plastic or metal inserts having a flange portion and an elongated tubular member, which are introduced in multiple places within the simulated flesh with the flange portion within the foam core portion and the elongated tubular member extending through the skin portion. A fastening member is inserted through an elongated opening in the insert and within a receiving cavity portion of the support structure to secure the hollow member to the support structure. The hollow member may be a hollow pelvic member, and the support structure may be a pelvic support structure, with the hollow pelvic member secured to the pelvic support structure via the mounting mechanism.

An anthropomorphic test device utilizes a mounting mechanism for coupling a hollow member including a simulated flesh to a support structure, with the simulated flesh including a foam core portion covered with a skin portion. The mounting mechanism includes inserts, such as plastic or metal inserts having a flange portion and an elongated tubular member, which are introduced in multiple places within the simulated flesh with the flange portion within the foam core portion and the elongated tubular member extending through the skin portion. A fastening member is inserted through an elongated opening in the insert and within a receiving cavity portion of the support structure to secure the hollow member to the support structure. The hollow member may be a hollow pelvic member, and the support structure may be a pelvic support structure, with the hollow pelvic member secured to the pelvic support structure via the mounting mechanism.

The present disclosure discloses a compliant mechanism (100) for application of radial resistance on a simulation endoscope (101). The mechanism (100) comprises a support plate (102), a ring member (103) rotatably mounted on the support plate (102) and a plurality of flexible beam assemblies (104) configured in an inner circumference of the ring member (203). The plurality of flexible beam assemblies (104) comprises a first beam (104a) connectable to the ring member (203) and a second beam (104b) connectable to the support plate (102). the circular motion of at least one of the support plate (102) and the ring member (103). relative to each other, moves the plurality of flexible beam assemblies (104) radially inward and radially outward to selectively apply radial resistance on the simulation endoscope (301). The complaint mechanism (100) of present disclosure are joint less mechanisms which are free from backlash and friction in joints.

A nasal simulator includes a three-dimensional (3D) printed nasal cavity within based on diagnostic imagery of a human nasal cavity. The nasal simulator comprising a fan system positioned to mimic air flow through the human nasal cavity. A first probe access bore is formed through the 3D printed nasal cavity to a first location having a first internal contour. An anemometer insert having an outer diameter sized to be slidingly received in and to pneumatically seal the first probe access bore, the anemometer insert having a distal contour that aligns with the first internal contour of the 3D printed nasal cavity, the anemometer insert having a longitudinal bore that is sized to receive a probe of an anemometer to detect characteristics of the air flow through the 3D cavity.

A method, an apparatus and a kit comprising the apparatus for simulating a progression of a breathing disease, using a breathing capacity simulation device is provided. The method includes adjusting, a constraint structure configured to constrain, variably, a flow of air therethrough, to a desired constraint level representing a level of progression of the breathing disease, and then, breathing, via a mouthpiece having a shape and size suitable for sealable suction of air through the mouth of a user. The breathing capacity simulation device includes the mouthpiece, the constraint structure, and a body, sealably coupling the mouthpiece and the constraint structure, wherein breathing air via the mouthpiece causes air intake or out-take only via the constraint structure.

According to some embodiments, a system comprises a generator of a truly random signal is connected to an input and feedback device for the purpose of providing a user with real time feedback on the random signal. The user observes a representation of the signal in the process of an external physical event for the purpose of finding a correlation between the random output and what happens during the physical event. In some examples, the system is preferably designed such the system is shielded from all classically known forces such as gravity, physical pressure, motion, electromagnetic fields, humidity, etc. and/or, such classical forces are factored out of the process as much as possible. The system is thus designed to be selectively response to signals from living creatures, in particular, humans.