14 results about "Diamond-like carbon" patented technology

The utility model discloses a kind of shaft structures for fatigue-resistant circuit breaker, including output shaft main body, the output shaft main body outside is provided with reinforcing component, the reinforcing component includes the coating one being arranged in the output shaft main body outside, the coating one is made of Ni60A+WC composite material, the coating one outside is provided with coating two, the coating two is made of diamond-like carbon material, the output shaft main body outside is provided with several reinforcing bands, the reinforcing band is prepared using TiN material, the output shaft main body middle position is provided with through hole, the through hole inside is fixedly connected with support frame, the output shaft main body and support frame are made using 17-4PH stainless steel material, the coating one thickness is 80-120 μm, the utility model is provided with reinforcing component, can greatly improve the overall strength of output shaft main body, effectively avoid the emergence of damage due to use time increase, beneficial to increase the service life of output shaft.

The present disclosure provides a screw rod and a screw rod nut assembly, the screw rod comprising: a screw rod body, the screw rod body comprising a threaded section, an outer surface of the threaded section sequentially provided from inside to outside with: a metal chromium base bonding layer, a tungsten carbide hardness support layer, and a DLC functional layer, the DLC functional layer being a diamond-like carbon coating layer; wherein a total thickness T1 of the metal chromium base bonding layer and the tungsten carbide hardness support layer is not less than 0.5 microns, and a thickness T2 of the DLC functional layer is not less than 1.5 microns. The screw rod nut assembly of the present disclosure comprises the above-mentioned screw rod.

The embodiments of this disclosure generally relate to the fabrication of integrated circuits. More specifically, the embodiments described herein provide techniques for depositing nitrogen-doped diamond-like carbon films for patterning applications. In one or more embodiments, a method for processing a substrate includes: flowing a deposition gas containing a hydrocarbon compound and a nitrogen dopant compound into a processing volume of a process chamber on which the substrate is positioned on an electrostatic chuck; and generating plasma at or above the substrate by applying a first RF bias voltage to the electrostatic chuck to deposit a nitrogen-doped diamond-like carbon film on the substrate. The nitrogen-doped diamond-like carbon film has a density greater than 1.5 g / cc and a compressive stress of about -20 MPa to less than -600 MPa.

The method for processing a plastic substrate according to the present invention includes: cleaning the plastic substrate; sputtering to form a metal film on the plastic substrate; subjecting the plastic substrate to plasma bombardment and etching; and depositing a diamond-like carbon layer on the metal film. This method is simple, efficient, and low-cost, and can form a low-stress diamond-like carbon layer on the plastic substrate, thereby reducing surface stress on the plastic substrate, preventing curling and deformation, and improving its performance.

A method to refurbish electrostatic chucks includes identifying one or more layers on a minimal contact area (MCA) pad affixed to an electrostatic chuck, configuring a laser ablation system to remove the identified layers, ablating the identified layers with a controlled laser beam from the laser ablation system, identifying one or more deposited metals on the electrostatic chuck, and ablating the identified deposited metals with the laser beam. In another aspect, the MCA pad may include a diamond like carbon layer and a Ti-TiN layer. The laser ablation process removes the layers and deposited metals on an electrostatic chuck in a manner that is performed faster, with a lower cost, and without the use of a multistep chemical process compared to conventional chemical stripping methods.

The present disclosure provides a metal material for medical devices, the metal material for medical devices having: a metal layer; and a diamond-like carbon layer containing fluorine and silicon provided on the metal layer.

The present application provides a kind of light wear-resistant bacteriostatic medical coating, including titanium transition layer, and diamond-like carbon film layer in the surface of titanium transition layer, silver and copper are contained in the diamond-like carbon film layer;And the preparation method of light wear-resistant bacteriostatic medical coating, including S1: raw material preparation and pretreatment;S2: Ar ion etching;S3: Ti transition layer deposition;S4: Ag, Cu co-doped deposition;S5: cooling, breaking vacuum.This technical solution has broad-spectrum bacteriostatic effect, and high bacteriostatic rate, reaches high-efficiency sterilization under lower total metal content, reduces endoscope related cross infection problem;Meanwhile, the coating has strong chemical inertness, dense structure without pore, resists multiple disinfection methods, titanium transition layer and silver copper doped structure do not dissolve, do not fail, avoid the problem that traditional antibacterial coating rapidly degrades, fails, falls off after repeated disinfection, meanwhile, the corrosion of disinfection medium to internal metal matrix is isolated, the performance of instrument is stable.

This invention provides an apparatus, method, and application for forming a uniform coating on the inner wall of a pipe to be plated, belonging to the field of metal surface protection technology. The apparatus includes a vacuum chamber, an electric field generating component, and a magnetic field generating component. The electric field generating component includes a pulse power supply, an auxiliary anode, and first and second extension tubes. The extension tubes and auxiliary anode are coaxially arranged to fix the corresponding pipe to be plated. The extension tubes and the pipe to be plated have the same inner diameter and are conductive. The auxiliary anode portion is located inside the extension tube. The negative terminal of the pulse power supply is connected to the pipe to be plated, and the positive terminal is connected to the auxiliary anode. During operation, the pipe to be plated and the extension tube are connected to form an integral cavity, and the cavity wall forms a continuous equipotential cathode surface. The electric field generating component and the magnetic field generating component respectively generate a radial electric field and an axial magnetic field inside the tube. This invention, through the integrated structure of "extension tube-pipe to be plated-extension tube," regulates the electric field, magnetic field, and airflow field inside the tube, achieving uniform deposition of a diamond-like carbon coating on the inner wall of the metal pipe.

Examples of a build material composition and a thermally conductive agent for three-dimensional printing are disclosed. An example of the build material composition includes from about 90 wt % to about 99 wt % of thermoplastic polyurethane particles and from about 1 wt % to about 10 wt % of a thermally conductive filler, based on a total weight of the build material composition. An example of the thermally conductive agent includes an aqueous vehicle and from about 1 wt % active to about 10 wt % active of the thermally conductive filler, based on a total weight of the thermally conductive agent. In both examples, the thermally conductive filler is selected from cubic boron nitride and diamond-like carbon.

The present invention provides elastic wave devices, filters, and multiplexers capable of improving power handling. [Solution] The elastic wave device comprises a piezoelectric layer 15, a first layer 31 provided on the piezoelectric layer 15 which is a titanium aluminum nitride layer, a chromium aluminum nitride layer, a chromium nitride layer, a diamond-like carbon layer, or a titanium carbide nitride layer, and a second layer 32 provided on the first layer 31 which is a metal layer formed of a metal with a lower electrical resistivity than the first layer 31, and includes a pair of comb-shaped electrodes 22 including electrode fingers 23.

This invention provides a maintenance method for slurry pumps that can extend the lifespan of the sleeve. [Solution] A method for maintaining a slurry pump having a pump shaft with a sleeve fitted to the shaft seal member, comprising: an initial operation step of performing slurry pumping operation using a slurry pump with a diamond-like carbon (DLC) coated sleeve 18 fitted to the pump shaft 14; a ceramic coating step of removing the DLC coated sleeve 18 from the pump shaft 14 when it is determined that the outer circumference of the DLC coated sleeve 18 has reached a predetermined amount of thinning, removing the outer circumference to a specified depth, and then performing ceramic thermal spraying on the removed portion to the same outer diameter as the DLC coated sleeve 18 before wear; and a subsequent operation step of performing slurry pumping operation using a slurry pump with the obtained ceramic coated sleeve 18 fitted to the pump shaft 14.

To provide a laminate that can achieve both oxygen barrier properties and light shielding properties, and a container that, by using the laminate, also has excellent mechanical strength and design in addition to oxygen barrier properties and light shielding properties. Furthermore, by suppressing the migration and leaching of colorants, the aim is to provide containers that offer excellent storage stability for contents such as beverages. [Solution] The problem is solved by a laminate comprising a resin composition layer containing a colorant and a thermoplastic resin, and a diamond-like carbon layer, characterized in that when observing 10 locations in a 500 μm × 500 μm area at 100x magnification with an optical microscope, the average number of aggregates with a major axis of 20 μm or more is 10 or less.

The application relates to the technical field of diamond-like carbon film preparation methods, and particularly discloses a diamond-like carbon film preparation method based on ion beam energy regulation, which comprises the following steps: S1, substrate pretreatment; S2, preparation of a metal transition layer; the metal transition layer is obtained by physically vapor depositing a main ion beam with an energy of 700-900 eV and bombarding a chromium target or a tungsten target at 80-220 DEG C for 0.5-2 hours on the surface of a substrate; S3, preparation of a surface modification layer; the surface modification layer is obtained by depositing a graphite target as a carbon source and introducing a fluorine-containing or tungsten-containing doping source on the surface of the metal transition layer through the graphite target bombarded by a main ion beam at 100-300 DEG C for 2-4 hours, wherein the main ion beam has an energy of 700-900 eV, a beam current of 63-81 mA and a beam current energy ratio of 0.09; and S4, low-temperature annealing. The diamond-like carbon film prepared by the method has strong adhesion to the substrate, low friction, high wear resistance, good mechanical properties and a long service life under harsh working conditions such as heavy load, impact and reciprocating friction.