14 results about "Ionic crystal" patented technology

A method for manufacturing a perovskite quantum dot composite material that easily forms core-shell particles through a one-stage synthesis step is provided, along with the perovskite quantum dot composite material and an ink containing the perovskite quantum dot composite material. This perovskite quantum dot composite material suppresses surface defects of the perovskite quantum dots by forming an ionic crystal layer comprising halides in the shell layer and exhibits a very high PLQY (Power Level Quality). The perovskite quantum dot composite material comprises core particles and a shell layer surrounding the core particles. The core particles are composed of metal halide perovskites, and the shell layer comprises an organic halide compound with an ionic crystal structure having the same halogen composition as the core particles. The PLQY is greater than 75%, and the change in emission wavelength is less than 5 nm over a period of 10,000 minutes at room temperature.

This invention discloses an antimony-doped wide-bandgap zirconium chloride powder-emitting crystal material, its preparation method, and its application. The chemical formula of the powder-emitting crystal material is (C9H). 15 N3)2ZrCl8:Sb 3+ It belongs to the monoclinic crystal system, with space group P21 / c; in the described photoluminescent crystal material, each zirconium atom is coordinated with 8 chlorine atoms to form [ZrCl8]. 4‑ Polyhedral structure, organic cation (C9H) 15 N3) + It is linked to inorganic anions via C–N–H···Cl bonds, forming discrete [ZrCl8]. 4‑ The octahedral structure is replaced by organic cations (C9H). 15 N3) + Complete isolation is achieved, forming a zero-dimensional ionic crystal structure. This invention overcomes the problems of single luminescent center, limited emission wavelength, and insufficient luminescence intensity in undoped zirconium-based chlorides by introducing antimony. Antimony, as an effective luminescent center, can promote the radiative recombination process and achieve high-brightness broadband emission.

Device (1) for receiving a volume flow of a medium which, in the solidified state, forms an ionic crystal structure, comprising at least one wall surface (10) which limits the volume flow (3) at least on one side, wherein the wall surface (10) has convex shape elements (20), wherein the device (1) for receiving a volume flow is a tube on the inner wall of which the convex shape elements (20) are arranged, characterized in that each convex shape element (20) has a cross-sectional area in its plane of section perpendicular to the plane of the surface (11) of the wall surface (10) and through its vertex (21) and along the longitudinal direction of the tube, which is bounded by an arc-shaped edge (22) and an edge connected to the arc-shaped edge (22) which is designed as a tangent (23), wherein the edge designed as a tangent (23) transitions into the surface (11).

To provide an ionic crystal using a new method that can further improve the heat resistance of the ionic crystal. [Solution] A surface-coated ionic crystal in which the surface of an ionic crystal is coated with a first polymer containing a first repeating unit which is a repeating unit having two or more zwitterionic structures in its side chain portion, and a second polymer containing a second repeating unit which is a repeating unit having only one zwitterionic structure in its side chain portion.

The invention discloses a powder light emitting crystal material of antimony-doped wide bandgap zirconium-based chloride and a preparation method and application of the powder light emitting crystal material, the chemical formula of the powder light emitting crystal material is (C9H15N3) 2ZrCl8: Sb < 3 + >, the powder light emitting crystal material belongs to a monoclinic system, and the space group is P21 / c; in the powder light emitting crystal material, each zirconium atom is coordinated with eight chlorine atoms to form a [ZrCl8] < 4-> polyhedral structure, organic cations (C9H15N3) < + > are connected with inorganic anions through C-N-H... Cl bonds, and the discrete [ZrCl8] < 4-> octahedral structure is completely isolated by the organic cations (C9H15N3) < + > to form a zero-dimensional ion crystal structure. According to the invention, the antimony element is introduced to overcome the problems of single luminescence center, limited emission wavelength and insufficient luminescence intensity of undoped zirconium-based chloride, and antimony is used as an effective luminescence center to promote the radiation recombination process and realize high-brightness wide-spectrum emission.

In an embodiment a quantum computing arrangement includes a permanent magnet arrangement configured to establish a magnetic field with magnitudes being different from one another for different positions on a first axis, and an ion trap having a first region and a second region arranged above one another, wherein the ion trap has at least one section being part of the first region and the second region configured for hosting at least one ion crystal, wherein the first and second regions are stacked above one another in a vertical direction, wherein the vertical direction is perpendicular to a main extension plane of the ion trap, and wherein the at least one ion crystal includes a plurality of trapped ions arranged along the first axis.

A diamond anvil cell device includes a first diamond anvil having a culet cut to provide a first anvil surface that is substantially perpendicular to a [111] crystal axis thereof; and a second diamond anvil having a culet cut to provide a second anvil surface. The at least one of the first and second diamond anvils includes an ion-crystal-vacancy-defect pair formed therein at a distance of at least 10 nm to 5 μm from the corresponding first or second anvil surface, and a remaining portion of the at least one of the first and second diamond anvils at distances farther than 5 μm from the first or second anvil surface is substantially free of ion-crystal-vacancy-defect pairs. A diamond anvil for a diamond anvil cell is defined by a plurality of flat surfaces resulting from cuts in a bulk piece of diamond having [111], [100] and [110] crystal axes, wherein one of said plurality of flat surfaces is a culet cut to provide an anvil surface of the diamond anvil. The culet is substantially perpendicular to the [111] crystal axis of the bulk piece of diamond. The diamond anvil includes an ion-crystal-vacancy-defect pair formed therein at a distance of at least 10 nm to 5 μm from the anvil surface, and a remaining portion of the diamond anvil at distances farther than 5 μm from the anvil surface is substantially free of ion-crystal-vacancy-defect pairs.

In an embodiment a quantum computing arrangement includes a permanent magnet arrangement, a substrate, wherein the quantum computing arrangement is configured to realize a planar Paul trap configured for trapping at least one ion crystal having several ions lined up along a predefined line, and components, constituting electrodes of the planar Paul trap configured for producing an electrical trapping potential, arranged on a top side of the substrate, wherein the predefined line is located above the top side, wherein the permanent magnet arrangement is configured to establish a magnetic field with a magnitude of the magnetic field changing along the predefined line, wherein the permanent magnet arrangement comprises a plurality of permanently magnetized segments, wherein each segment has a magnetization direction, and wherein the segments are arranged in a Halbach arrangement.

This invention relates to coated microcrystalline glass with a fluorinated polymer hydrophobic and oleophobic layer, its preparation method, and applications. The coated glass is a microcrystalline glass or glass-ceramic with a hydrophobic and oleophobic composite coating on its surface. The invention is characterized by comprising, starting from the outermost surface of the glass: a hydrophobic and oleophobic layer, an intermediate layer, a base layer, and the microcrystalline glass or glass-ceramic. The intermediate layer is formed by ionic crystals containing lattice energy of 700-3000 kJ / mol, and the base layer comprises a compound containing Si-O bonds or a mixed silicon oxide layer. This invention enables the formation of a robust, durable, and high-performance hydrophobic and oleophobic coating at the coating interface of the microcrystalline glass, even with minimal Si-O structure. Excellent hydrophobic and oleophobic properties can be achieved regardless of whether the highly crystalline glass has undergone ion exchange.

A wave gear device (1) is lubricated with non-hydrophobized powder (10A) enclosed in an internal space (9) before the end of running-in (aging), and the non-hydrophobized powder (10A) forms a firm lubricating film by transferring and adhering to each contact surface of the contact portions (B, C). During load running, the wave gear device (1) is lubricated with hydrophobized powder (10B) enclosed in the internal space (9) instead of the non-hydrophobized powder (10A). The powders (10A, 10B) used are powders of ionic crystal compounds (MoS2, WS2, etc.) having a layered crystal structure. By lubricating the wave gear device (1) during load running with the hydrophobized powder (10B), temporary efficiency reduction at the start of running can be suppressed, and stable running of the wave gear device (1) can be maintained.

A composite electrolyte comprising an inorganic solid electrolyte and a plastic ionic crystal containing an alkali metal ion.

The present application relates to the film-coated glass-ceramics with excellent hydrophobic and oleophobic properties and its manufacturing method, the film-coated glass-ceramics or glass-ceramics with excellent hydrophobic and oleophobic properties, characterized in that, from the surface of the glass, it comprises: a hydrophobic and oleophobic layer, an intermediate layer, a primer layer and a glass-ceramics or glass-ceramics, wherein the intermediate layer is an intermediate layer formed by an ionic crystal containing a lattice energy of 700-3000 kJ / mol, and the primer layer comprises a compound containing Si-O bond or a mixed silicon oxide layer. Through the present application, even if the film-coated interface of the glass-ceramics has little Si-O structure, a firm, durable and excellent performance hydrophobic and oleophobic coating can be formed, and excellent hydrophobic and oleophobic properties can be achieved regardless of whether the high crystallinity glass has been ion exchanged.

The invention relates to a fluorescent pattern preparation method based on a glass perovskite composite material, and belongs to the technical field of micro-nano processing and fluorescent materials. The method aims to solve the problem that the conventional perovskite material cannot be compatible with a standard photoetching process due to the fact that the ionic crystal characteristic of the perovskite material is easily dissolved and damaged by polar solvents such as a developing solution and the like in a photoetching patterning process. Glass perovskite powder with high chemical stability is prepared by wrapping a perovskite luminous body in an inorganic glass matrix, and the glass perovskite powder is uniformly compounded with a negative wet film photoresist to form a fluorescent composite photoresist; and then preparing a high-resolution fluorescent pattern on the substrate by adopting standard photoetching processes such as spin coating, exposure and development. The obtained fluorescent pattern shows stable luminescence performance under excitation of 365 nm ultraviolet light, and has good process compatibility and environmental stability while keeping high photoluminescence efficiency. The method is suitable for the fields of micro display, anti-counterfeiting encryption, photoelectric integration and the like.

The application provides a crystal structure high-throughput design method based on molecular or ion configuration, which comprises the following steps: obtaining candidate ion structure data and performing quantum chemistry calculation and electrostatic potential analysis, combining ion crystal density empirical formula calculation to predict the crystal density, and screening ion combinations with high predicted density; further generating multiple initial crystal structure models based on space group theory and Wyckoff position symmetry analysis, and realizing efficient optimization of the crystal structure through two-level optimization steps of pre-optimization by a machine learning potential model and fine optimization by first principles; and performing bonding state analysis, protonation phenomenon detection and energy and density data extraction on the optimized structure, and screening the crystal structure meeting the performance index, so as to solve the problem that it is difficult to efficiently screen and generate high-density metastable crystal structures.