B28B3/02

Method for structuring, patterning, and actuating devices using two-dimensional materials

A method for patterning layers of 2D material by inducing self-assembly on a support substrate, the method comprising the steps of depositing a layer of 2D material on the support substrate; applying a force at a region consisting of a point, a line, or an a real region of the 2D material such that the 2D material forms a folded, self-contacting structure at that region.

Lithium Cobalt Sintered Body and Sputtering Target Produced by Using the Sintered Body, Production Method of Lithium Cobalt Oxide Sintered Body, and Thin Film Formed from Lithium Cobalt Oxide
20170271134 · 2017-09-21 ·

A lithium cobalt oxide sintered body having a bending strength of 100 MPa or more, and a sputtering target formed using the sintered body are provided. In particular, a cylindrical sputtering target for use in rotary sputtering is provided. The sputtering target is useful in forming a cathode material thin film in an all-solid thin film lithium ion secondary battery for use in vehicles, telecommunication equipment and household equipment.

Molding equipment for molding inter-engaging bricks and method of using the same

A molding equipment and method to mold stackable inter-engaging bricks, blocks, stones and the like and bricks, blocks, stones and the like produced therewith are disclosed. The molding equipment comprises a main structure which contains individual cavities. Each cavity preferably has a middle structure to which a brick separating element can be attached. Without the brick separating element, each cavity can form two attached splittable bricks whereas with the brick separating element attached, each cavity can hold two individual smooth or embossed face bricks. The size and shape of the stackable inter-engaging bricks is such that once out of the mold but still in an uncured form, the brick can stand on its side without falling down, being damaged, buckling or being otherwise deformed during the manufacturing process.

PRESSED, SELF-SOLIDIFYING, SOLID CLEANING COMPOSITIONS AND METHODS OF MAKING THEM

The present invention relates to a method of making a solid cleaning composition. The method can include pressing and/or vibrating a flowable solid of a self-solidifying cleaning composition. For a self-solidifying cleaning composition, pressing and/or vibrating a flowable solid determines the shape and density of the solid but is not required for forming a solid. The method can employ a concrete block machine for pressing and/or vibrating. The present invention also relates to a solid cleaning composition made by the method and to solid cleaning compositions including particles bound together by a binding agent.

METHOD FOR PRODUCING A BLANK, BLANK AND A DENTAL RESTORATION

The invention relates to a method for the preparation of a blank of a ceramic material, wherein a first ceramic material and then a second ceramic material of different compositions are filled into a die and wherein the materials are pressed and after pressing are sintered. A layer of the first ceramic material is thereby filled into the die and a first cavity formed in the layer, the second ceramic material is then filled into the first open cavity and the materials pressed together and then heat-treated.

Ceramic matrix composite
09757918 · 2017-09-12 · ·

The invention concerns an article (20) formed of a ceramic matrix composite structure having a plurality of ceramic fiber layers (22) and a binder material (24) interspersed throughout said layers. The ceramic matrix composite material may be sintered. The ceramic fiber layers undulate relative to one or more outer surfaces (38;40) of the article. Thus support features (48) within the article are able to share a load in use between a plurality of layers. The invention may be suited to engine components such as turbine seal segments in a gas turbine engine.

Surface Coatings
20170252944 · 2017-09-07 ·

The present invention relates to a mold and a pressure piece for producing molded bricks, in particular molded concrete bricks, a process for producing this mold or this pressure piece, an apparatus for producing molded bricks, a vibratable base for producing molded bricks, a metal drawing sheet for producing molded bricks, and also the use of a coating comprising an antiwear matrix and an antiadhesion component for surfaces of molds and/or pressure pieces and/or vibratable bases and/or metal drawing sheets used for producing molded bricks.

HONEYCOMB STRUCTURE
20170252737 · 2017-09-07 · ·

The honeycomb structure includes a pillar-shaped honeycomb structure body, and a circumferential coating layer disposed to surround a circumference of the honeycomb structure body, and cells which are formed at an outermost circumference of the honeycomb structure body and in which peripheries of the cells are defined by the partition walls without any lacks are defined as outermost circumference complete cells, and in a cross section of the honeycomb structure body which is perpendicular to an extending direction of the cells a minimum distance T (mm) among distances from the outermost circumference complete cells to the surface of the circumferential coating layer and a porosity P (%) of the circumferential coating layer satisfy relations of Equation (1) and Equation (2) as follows:


1.5≧T≧16×(100−P).sup.−1.4; and  Equation (1):


20≦P≦75.  Equation (2):

HONEYCOMB STRUCTURE
20170252737 · 2017-09-07 · ·

The honeycomb structure includes a pillar-shaped honeycomb structure body, and a circumferential coating layer disposed to surround a circumference of the honeycomb structure body, and cells which are formed at an outermost circumference of the honeycomb structure body and in which peripheries of the cells are defined by the partition walls without any lacks are defined as outermost circumference complete cells, and in a cross section of the honeycomb structure body which is perpendicular to an extending direction of the cells a minimum distance T (mm) among distances from the outermost circumference complete cells to the surface of the circumferential coating layer and a porosity P (%) of the circumferential coating layer satisfy relations of Equation (1) and Equation (2) as follows:


1.5≧T≧16×(100−P).sup.−1.4; and  Equation (1):


20≦P≦75.  Equation (2):

CERAMIC RADIATION DETECTOR DEVICE AND METHOD
20210395152 · 2021-12-23 ·

A ceramic lithium indium diselenide or like radiation detector device formed as a pressed material that exhibits scintillation properties substantially identical to a corresponding single crystal growth radiation detector device, exhibiting the intrinsic property of the chemical compound, with an acceptable decrease in light output, but at a markedly lower cost due to the time savings associated with pressing versus single crystal growth.