50 results about "Material element" patented technology

A method accessing a pre-trained specific material database associating each of a plurality of materials with a corresponding material profile, each material profile including one or more parameters including at least one of a transmit frequency and a response frequency; receiving a selection of a target material from a user; identifying first material profile associated with the target material using the pre-trained specific material database; transmitting, via an RF detection device, an RF signal into the target material using the one or more parameters for the target material associated with the first material profile; receiving, via the RF detection device, a response signal from the target material; analyzing the response signal using an AI algorithm to determine whether resonance characteristics of the response signal indicate a presence of the target material; and notifying the user if the presence of the target material is indicated by the resonance characteristics.

A method accessing a pre-trained specific material database associating each of a plurality of materials with a corresponding material profile, each material profile including one or more parameters including at least one of a transmit frequency and a response frequency; receiving a selection of a target material from a user; identifying first material profile associated with the target material using the pre-trained specific material database; transmitting, via an RF detection device, an RF signal into the target material using the one or more parameters for the target material associated with the first material profile; receiving, via the RF detection device, a response signal from the target material; analyzing the response signal using an AI algorithm to determine whether resonance characteristics of the response signal indicate a presence of the target material; and notifying the user if the presence of the target material is indicated by the resonance characteristics.

The present invention discloses a smart bio-inspired material design platform to satisfy multi-objective material design featuring complex microstructure for the future. the platform sets mechanical properties of a simulative material element via establishing a reduced model. A distribution of the simulative material element is simulated so as to output a material simulative parameter. A deep learning framework is combined in the platform for computing and evaluating an optimal material design that meets a target material parameter. Specifically, the reduced model can be based on data provided by any test of material mechanical properties, and the deep learning framework evaluates whether a biomimetic material design meets demand of the optimal target material parameter according to a standardized reward function model. The platform is applicable to multi-objective simulative material design, and is greatly potential for futuristic applications.

1. The name of the design product: spectrum analyzer (Korui Mini). 2. The use of the design product: qualitative and quantitative analysis of material elements. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

The object of the invention is a brittle inorganic material element which is highly flexible and has a large strength. To this end, an inorganic brittle material element (1) is provided which has two opposite sides (3, 5) and a circumferential edge (7), the element (1) comprising at least three portions, including a first portion (9) and two second portions (11, 13), the second portions adjoining the first portion such that the first portion (9) is arranged between the second portions (11, 13), the first portion (9) comprising an arrangement of openings (90) forming a passage from one side (3) of the element to the opposite side (5) such that the first portion (9) has a higher flexibility than the second portions (11, 13).

According to examples, an apparatus may include a processor that may access information about a screen device having pores, in which the screen device is to be employed to filter liquid from a slurry composed of the liquid and material elements to form a part from the material elements. The processor may also access information about a main body, in which the main body is to support the screen device during formation of the part and has a plurality of openings that are larger than the pores in the screen device. The processor may identify, based on relative locations of the pores and the openings, pores that are to be removed from the screen device to increase uniformity of liquid flow through the pores across the screen device and may modify the accessed information about the screen device to remove the identified pores from the screen device.

The invention relates to a heterogeneous thermal interface material element and a pressure measuring device with the same. The element comprises a graphite gasket and a soft thermal conductive sheet. The graphite gasket comprises an upper layer body, a lower layer body, an arc-shaped part and a glue sealing part, the arc-shaped part is integrally connected with the upper layer body and the lower layer body and forms a C-shaped bag body structure together with the upper layer body and the lower layer body, the C-shaped bag body structure is provided with an internal space and a bag opening, the internal space is communicated with the bag opening and completely accommodates the soft heat conduction sheet, and the glue sealing part seals the bag opening. The soft heat conduction sheet is completely contained in the graphite gasket and clamped by the upper layer body and the lower layer body, and air gaps are formed between the soft heat conduction sheet and the arc-shaped part and between the soft heat conduction sheet and the sealing glue part. The soft heat conduction sheet and the graphite gasket are made of different materials, the heat conductivity coefficient of the graphite gasket is larger than that of the soft heat conduction sheet, and the ductility of the soft heat conduction sheet is larger than that of the graphite gasket. According to the invention, the extension size and the contact area of the tested element can be increased after pressing, the original heat dissipation efficiency can be improved, and the risks that the tested element is overheated and burnt and the test data is not accurate enough are reduced.

Beet harvesting share with a base part (10) having a cutting edge (S), wherein a hard material coating is arranged in the area of ​​the cutting edge (S), which has one or more deflecting surfaces (23) on its upper side, wherein the derivation surface(s) (23) are transitioned into a surface area of ​​the base part (10), and wherein this area forms a beet guidance zone, in particular a beet pressing zone (12), characterized by that the hard material coating has hard material elements which are designed as cutting elements (20) and which form the cutting edge (S) at least in some areas.

A heterogeneous thermal interface material element includes a graphite liner and a soft thermal conductive sheet. The graphite liner has an upper layer, a lower layer opposite to the upper layer, an arc-shaped portion integrally connected to the upper layer and the lower layer so as to mutually form a C-shaped bag structure, and a sealing portion. The soft thermal conductive sheet is completely received in the C-shaped bag structure and sandwiched between the upper layer and the lower layer. The C-shaped bag structure is formed with a bag mouth sealed by the sealing portion. The soft thermal conductive sheet and the graphite liner are different materials. The thermal conductivity coefficient of the graphite liner is greater than that of the soft thermal conductive sheet, and the ductility of the soft thermal conductive sheet is greater than that of the graphite liner.

1. The name of this design product: Ground feature spectrometer (large version). 2. Purpose of this design product: used for analyzing material elements. 3. The key point of the design of this product lies in its shape. 4. The picture or photo that best illustrates the design points: Stereoscopic drawing 1.

1. The name of this design product: Ground feature spectrometer (small version). 2. Purpose of this design product: used for analyzing material elements. 3. The key point of the design of this product lies in its shape. 4. The picture or photo that best illustrates the design points: Stereoscopic drawing 1.

The application provides a kind of electron beam scanning welding heterogeneous material interface regulation method based on spectral feedback, which is suitable for the connection of two types of heterogeneous materials. The method first establishes the corresponding relationship between the intensity ratio of the interface element mixed characteristic spectral line and the state of harmful intermetallic compound, and sets the target value of the intensity ratio. During welding, the spectrometer is used to collect the plasma spectrum of the molten pool in real time, calculate the real-time value of the intensity ratio and generate a deviation signal. According to the deviation signal, the electron beam scanning parameters are dynamically adjusted by means of dynamic deflection scanning coil: when the first material element is enriched, the convection of the molten pool is strengthened, or the heat input is biased to the second material side; when the element is poor, the convection of the molten pool is weakened, or the heat input is biased to the first material side. The application realizes real-time closed-loop regulation of welding parameters through spectral online feedback, effectively suppresses the generation of harmful intermetallic compounds at the welding interface of heterogeneous materials, improves the performance of the welded joint, and has strong regulation precision and practicality.

The invention discloses a nuclear structure material database construction and use method and system and a medium, and the method comprises the steps: obtaining original test data of a nuclear structure material, the original test data being in-pile and out-pile performance test data of the nuclear structure material; according to the original test data, first calculation information and second calculation information are obtained through calculation; the first calculation information is material calculation information for core structure material elements, and the second calculation information is material calculation information for describing core structure material components; performing data cleaning on the original test data, the first calculation information and the second calculation information, and filling the cleaned corresponding data into a database in a preset format one by one based on a Python program to form a nuclear structure material performance database; and extracting corresponding data from the database based on database use requirements of the set performance model. According to the method, construction and use of the kernel structure material database meeting the requirement of a high-accuracy kernel structure material machine learning model are realized.

According to an example, an apparatus can include a processor that can access a digital design of a screening device having a pore, where the screening device can be used to filter a liquid from a slurry composed of the liquid and a material element. The processor can further apply a fluid dynamics modeling to the digital design of the screening device to model how the liquid is predicted to flow through the screening device during application of a pressure through the screening device, where the fluid dynamics modeling is applied to a plurality of digital designs of the screening device having various pore properties with respect to one another; and based on the applied fluid dynamics modeling, a pore property of the various pore properties can be determined that is predicted to result in a component being formed with an optimized attribute and / or the component being formed within a minimum length of time.

The invention relates to a composite material element (20), in particular for the manufacture of a glider as well as other boats and boat components. The composite material element (20) is characterized in that it has at least one inherently flame-retardant layer (22) of a cork material (24) and a biogenic binder (26). Furthermore, the invention relates to a method for manufacturing such a composite material element (20) and a slider (34) comprising composite material elements (20).

According to examples, an apparatus may include a processor that may access data pertaining to a part to be fabricated from material elements in a slurry of a liquid and the material elements, the data identifying a configuration of holes to be formed in the part. The processor may also access a digital model of a screen device having a plurality of pores based on the accessed data, the screen device to be used to fabricate the part, and may determine locations on a surface of the digital model of the screen device that correspond to the identified configuration of the holes to be formed in the part. The processor may further generate, at the determined locations on the surface of the digital model of the screen device, a plurality of walls that are to form the holes in the part.

The invention relates to a three-dimensional material generation method and device, equipment and a medium, and the method comprises the steps: obtaining material description information in response to an input operation in a session page, the material description information is used for describing task contents of a material generation task, the material generation task comprises a plurality of task nodes, and the task nodes are used for generating a plurality of data; the plurality of task nodes have an execution sequence relationship; an editing page of the first task node is displayed, the first task node belongs to one of the multiple task nodes, the editing page comprises a first material element of the first task node, and the first material element is obtained based on the material description information; in response to an adjustment operation on the first material element in the edited page, obtaining a second material element of the first task node; and in response to completion of execution of the material generation task, displaying a first material, the first material being a three-dimensional material, the first material being obtained based on the second material elements corresponding to the plurality of task nodes. And the generation efficiency and precision of the three-dimensional material are improved.

The utility model relates to an automatic material sticking device before cutting the appearance of a chip, which comprises a workbench, and a feeding mechanism, a catalyst smearing mechanism, a gluing combination mechanism, a residual glue removing and shaping mechanism and a material collecting and arranging mechanism are sequentially arranged on the workbench. The feeding mechanism is used for conveying and storing material elements needing to be combined and carrying out feeding operation according to a working procedure combination instruction, the catalyst smearing mechanism is used for smearing a catalyst on each material element, the gluing combination mechanism is used for uniformly smearing an adhesive on each material element, and bonding combination and pressing are carried out in sequence; and the residual glue removing and shaping mechanism is used for removing residual glue extruded from the surface of the combined body and shaping the glued combined body into a regular cuboid, and the collecting and arranging mechanism is used for neatly arranging the glued and shaped combined body. The whole operation is completely automatic, the production efficiency is improved, the gluing quality is greatly improved, and meanwhile the production cost is successfully reduced.

Provided are a method for manufacturing a composite inductor with which inductance characteristics are improved, and a composite inductor. A method for manufacturing a composite inductor 1 according to the present disclosure comprises: a step for laminating a magnetic material and an electroconductive material, and manufacturing, according to a first heat treatment condition, a first coil element 10 and a second coil element 20 provided with a magnetic body, a coil that is provided inside the magnetic body, and an external electrode that is electrically connected to the coil and is exposed from at least one mounting surface of the magnetic body; a step for manufacturing an intervening element according to a second heat treatment condition different from the first heat treatment condition by using a magnetic material having the same constituent material element as the aforementioned magnetic material; and a step for impregnating each of the first coil element 10, the second coil element 20, and the intervening element 30 with resin and then interposing the intervening element 30 between the first coil element 10 and the second coil element 20 to integrate these elements together.

The invention relates to the technical field of engineering material allocation, and particularly discloses an engineering material unified allocation method and system considering loss and a terminal, and the method comprises the steps: determining and sorting the relation between various material element nodes in a project through the definition of material elements and the establishment of an allocation relation; constructing a material blending coefficient matrix and a loss compensation coefficient matrix, quantifying the transportation conditions of different material elements on a unit path, and dynamically simulating the loss amount in the blending process; the establishment of the constraint relational expression ensures that the scheme is in an actual feasible range; the optimal allocation scheme is solved by constructing the target function and combining the constraint relational expression, the economical efficiency and the actual engineering loss condition can be comprehensively considered, allocation parameters are automatically obtained, and unified allocation of engineering materials is guided.

Wear protection element, namely studded bolt, with a support part (40) which carries a hard material element (30) in or on a receptacle, wherein the hard material element (30) is indirectly or directly supported by a bottom-side support surface (35) of a fastening section (33) on a counter surface (48) of the support part (40), and wherein a transition section (32) is indirectly or directly connected to the fastening section (33), which tapers the outer contour of the hard material element (30) at least partially towards its end facing away from the support surface (35), characterized in that the support part (40) has a preferably obtusely conical first connecting section (47) directly or indirectly connected to the counter surface (48) and a second connecting section (46) directly or indirectly connected thereto, and that these two connecting sections (46,47) taper the cross-section of the supporting part (40) towards the end facing away from the hard material element (30).

The present invention relates to a tensile rail fastener, which includes: a damping alloy energy-absorbing component, a rubber pad support component and a rail restraint component; the rubber pad support component is connected to the rail restraint component for embedding the rail therein, and the damping alloy energy-absorbing component is arranged on the sleeper and is hinged to the rail restraint component. Compared with the prior art, the present invention has a wide-band energy-absorbing capability: due to the use of a damping alloy, it has a good energy-absorbing effect on both low-frequency and high-frequency vibrations in a tensile elastic deformation state, effectively improving the technical bottleneck problem in traditional fastener systems where the energy consumption of viscoelastic material elements depends on large deformations, but the large deformations do not rebound in time, thereby affecting their energy-absorbing efficiency. The present invention is safe and reliable, and due to the two-stage energy dissipation and vibration reduction structure of the damping alloy energy-absorbing component and the rubber pad support component, it can ensure the safe operation of trains in extreme environments.

The invention discloses a transition circular ring used for dissimilar material connection and having thermal stress reduction and vibration isolation functions, the transition circular ring is connected with a first material element through an inner hole and connected with a second material element through an outer hole, the transition circular ring is of a solid integrated plate-shaped structure, and a plurality of through hole grooves penetrating through the thickness direction of the transition circular ring are formed in the transition circular ring; the through hole grooves are formed in the areas, in strong coupling with a second material, close to the outer holes, the inter-hole ligament areas between the adjacent outer holes and the annular belt areas between the inner holes and the outer holes, the transition circular ring after the through hole grooves are formed still keeps circumferential closed-loop continuity, and the through hole grooves absorb thermal strain generated by the difference of linear expansion coefficients of different materials through local micro-deformation. And meanwhile, as a vibration decoupling interface, transmission of vibration energy between the inner hole ring and the outer hole ring is inhibited by reducing radial transmission rigidity and increasing structural damping. While thermal stress is greatly reduced, effective isolation of micro-vibration is achieved, and the coaxiality and stability of a precise instrument under complex working conditions are guaranteed.

The disclosure belongs to the field of underground energy storage, and particularly provides a large-deformation underground energy storage device, including a body. The body includes a rubber sealing layer, a negative Poisson's ratio material layer, a large deformation concrete layer and rock layers sequentially nested from inside to outside; an internal storage space is formed in the rubber sealing layer, the negative Poisson's ratio material layer includes a plurality of negative Poisson's ratio material elements connected in sequence, and the large deformation concrete layer is cast from deformable concrete.

According to the thin-wall special-shaped metal sealing ring surface toughening CoMoCrSi coating, a double-layer glow plasma surface metallurgy technology is utilized, a CoMoCrSi alloy serves as a target material, a nickel-based high-temperature alloy thin-wall special-shaped metal sealing ring serves as a workpiece, and the thin-wall special-shaped metal sealing ring surface toughening CoMoCrSi coating is obtained through three steps. The method comprises the following steps: 1, regulating and controlling surface micro-area plastic deformation of a metal sealing ring by controlling current density, and realizing gradient change of roughness from a boundary to a center by virtue of an edge effect; secondly, remelting of the protruding position of the plastic deformation area is caused through the hollow cathode effect, target material element diffusion is accelerated, and interface mechanical-metallurgical bonding is achieved; and thirdly, the surface toughening CoMoCrSi coating with the gradient structure is formed through deposition. The mechanical occlusion depth between the coating and a workpiece is 2-6 microns, the thickness of a deposition layer is 10-30 microns, the thickness of a metallurgical diffusion layer is 1-5 microns, and the coating is high in toughness, simple and convenient in process, high in production efficiency, low in cost and suitable for batch processing.

A shape memory material element configuration. The element includes a shape memory material element, and a capillary line extending to the element, and positioned to apply an activation fluid to the element.

Provided are a method for manufacturing a composite inductor with which inductance characteristics are improved, and a composite inductor. A method for manufacturing a composite inductor 1 according to the present disclosure comprises: a step for laminating a magnetic material and an electroconductive material, and manufacturing, according to a first heat treatment condition, a first coil element 10 and a second coil element 20 provided with a magnetic body, a coil that is provided inside the magnetic body, and an external electrode that is electrically connected to the coil and is exposed from at least one mounting surface of the magnetic body; a step for manufacturing an intervening element according to a second heat treatment condition different from the first heat treatment condition by using a magnetic material having the same constituent material element as the aforementioned magnetic material; and a step for impregnating each of the first coil element 10, the second coil element 20, and the intervening element 30 with resin and then interposing the intervening element 30 between the first coil element 10 and the second coil element 20 to integrate these elements together.

The disclosure provides a through-silicon via (TSV) interposer, a method for manufacturing therefor and a three-dimensional chip. The TSV interposer includes: a substrate, and an interior of the substrate is provided with a cavity and a first structural layer covering a part of an inner wall of the cavity, and a material type of the first structural layer is different from a material type of the substrate; a via hole structure that penetrates the substrate and is located at a side of the cavity; and liquid metal located in the cavity, and the liquid metal and the first structural layer include a same material element.