8 results about "Cubic centimetre" patented technology

A weight and method for installing the same in a piano key or damper, the method including: providing a weight formed from material including a metal having a density greater than 12 grams per cubic centimeter; inserting the weight into the piano key or damper. The material including at least a metal sufficiently strong to form a thread on a surface thereof; and wherein the weight has a thread formed on the surface. The material is resistant to corrosion at least at ambient temperatures The weight being a cylindrical member made of lead; and at least one outer layer of an inert metal material or a corrosion-resistant metal material covering the cylindrical member.

The present disclosure provides an acoustic hollow core door comprising a door slab including an inner door frame and first and second facings secured to first and second sides of the inner door frame. The inner door frame and the first and second facings define an at least partially hollow air cavity, and at least one of the first or second facings has a thickness between about 0.150-0.320 inches and a nominal density of between about 0.80-1.1 grams per cubic centimeter. The hollow core door may include internal sticks or core inserts positioned within the hollow air cavity between the first and second facings. Acoustically absorptive material may be positioned within the hollow air cavity to reduce resonance effects around 250-315 Hz frequency range. The acoustic hollow core door achieves STC ratings of between about 25-31, while maintaining weight reduction compared to solid core doors with comparable acoustic performance.

The present disclosure provides an acoustic hollow core door comprising a door slab including an inner door frame, a first facing secured to a first side of the inner door frame, and a second facing secured to a second, opposite side of the inner door frame. The inner door frame and the first and second facings define an at least partially hollow air cavity, and at least one of the first or second facings has a thickness between about 0.150 and 0.320 inches and a nominal density of between about 0.80 and 1.1 grams per cubic centimeter. The hollow core door may include internal sticks or core inserts positioned within the hollow air cavity between the first and second facings. Acoustically absorptive material may be positioned within the hollow air cavity to reduce resonance effects around 250-315 Hz frequency range. The acoustic hollow core door achieves STC ratings of between about 25 and 31, while maintaining weight reduction compared to solid core doors with comparable acoustic performance.

The application provides an epitaxial method of a germanium material layer, which comprises the following steps: forming a first insulating layer on the surface of a substrate; etching the first insulating layer to form a window, and a part of the surface of the substrate is exposed from the window; and placing the substrate with the window into a reaction cavity, introducing a process gas and a carrier gas into the reaction cavity, controlling the pressure and the epitaxial temperature of the reaction cavity, and epitaxially growing a germanium material layer on the surface of the substrate in the window, wherein the flow rate of the process gas is 10-300 standard cubic centimeters per minute (sccm), and the epitaxial temperature is 450-650 degrees Celsius. The epitaxial method of the germanium material layer is carried out through suitable process conditions, which can avoid the lateral outgrowth of the germanium material out of the window and the edge protrusion of the germanium material, so as to improve the quality of the germanium material layer, and further meet the requirements of subsequent processes and devices.

An apparatus is provided. The device includes a substrate having at least one structure having an aspect ratio of at least 10: 1. The device includes a film positioned overlying the at least one structure in a step of at least 90%. The film comprises: a metal oxide or metalloid oxide; and a concentration of less than 1 * 1020 hydrogen atoms per cubic centimeter as measured by SIMS. Also provided herein are methods for forming a film on a substrate, and related systems and methods.

An insulating container can be configured to retain a volume of at least 1800 cubic centimeters that includes an outer shell and an inner shell. The outer shell and inner shell may be integrally joined together to form an insulated double wall structure with a sealed vacuum cavity between the two shells. A compressible support member may be placed to between a bottom wall of the outer shell and a bottom wall of the inner shell to help form a planar bottom wall of the inner shell when the vacuum cavity is formed.

An aerosol-generating article for producing an inhalable aerosol upon heating, the aerosol-generating article comprising a substrate plug defining an internal volume, the internal volume comprising an aerosol-generating substrate, wherein a mass of the aerosol-generating substrate within the internal volume of the substrate plug is less than or equal to 0.3 milligrams per cubic millimetre and wherein the aerosol-generating article comprises less than or equal to 140 milligrams of aerosol-generating substrate or the mass of the aerosol-generating substrate within the internal volume of the substrate plug is less than or equal to 0.5 milligrams per cubic millimetre and wherein the aerosol-generating article comprises less than or equal to 100 milligrams of aerosol-generating substrate. The aerosol-generating article may include at least 10 milligrams and less than 100 milligrams of aerosol-generating substrate, and the aerosol-generating article may have an internal volume of at least 1 cubic centimetre.