Patent classifications
B29C39/42
Polyamide-imide film
One embodiment may provide a polyamide-imide film which is colorless and transparent while having an adequate level of solubility and excellent mechanical properties, the polyamide-imide film comprising a polyamide-imide polymer formed by polymerizing an aromatic diamine compound, an aromatic dianhydride compound and a dicarbonyl compound, wherein, for a square cross-section of 1 cm×1 cm and a thickness of 30 um to 100 mm, the polyamide-imide film has a dissolution time of 5-60 minutes in 10 ml of dimethylacetamide (DMAc), and for a thickness of 50 mm, the polyamide-imide film has a yellowness of at most 5, a haze of at most 2%, a permeability of at least 85% and a modulus of at least 5.0 GPa.
METHOD FOR MANUFACTURING A CARBON-CARBON TIMEPIECE COMPONENT
The manufacturing method comprises at least one processing step for a carbon-carbon composite part (100, 200). In a first variant, the method comprises steps for machining and a step for processing the part. In a second variant, the method comprises a crushing step for the part before the processing step and a moulding step after the processing step. Application to manufacturing timepiece components (170, 270).
METHOD FOR MANUFACTURING A CARBON-CARBON TIMEPIECE COMPONENT
The manufacturing method comprises at least one processing step for a carbon-carbon composite part (100, 200). In a first variant, the method comprises steps for machining and a step for processing the part. In a second variant, the method comprises a crushing step for the part before the processing step and a moulding step after the processing step. Application to manufacturing timepiece components (170, 270).
CODE-MULTIPLEXED SENSOR NETWORKS FOR MICROFLUIDIC IMPEDANCE SPECTROSCOPY
A microfluidic device for particle analysis, such as immunophenotyping, includes a plurality of microfluidic channels for the passage of a particle-laden fluid flow, a plurality of dedicated impedance sensors for generating impedance signals relative to each microfluidic sensor. The impedance sensors are CODES Coulter sensors, each having a distinct coded sequence for generating mutually orthogonal signals. The system uses a multi-frequency excitation signal for driving the Coulter sensors, such that the Coulter sensors generate multi-frequency impedance signals. The system outputs the multi-frequency signals of the plurality of impedance sensors as a single multi-frequency multiplexed signal, which is subsequently separated into a plurality of single-frequency multiplexed signals, which are then demodulated into single-frequency component signals corresponding to each of the Coulter sensors.
MICROFLUIDIC DEVICE AND METHOD OF MANUFACTURE
A method for molding a part is disclosed wherein a molding material has a minimum viscosity. A substrate that is responsive to a magnetic or electric field is introduced to the molding material. The substrate is moved by a magnetic or electric field to form channels in the molding material. The molding material is cured during or after the channels are formed.
MICROFLUIDIC DEVICE AND METHOD OF MANUFACTURE
A method for molding a part is disclosed wherein a molding material has a minimum viscosity. A substrate that is responsive to a magnetic or electric field is introduced to the molding material. The substrate is moved by a magnetic or electric field to form channels in the molding material. The molding material is cured during or after the channels are formed.
TRANSTERMAL DRUG DELIVERY PATCH AND MANUFACTURING METHOD THEREOF
A transdermal drug delivery patch includes a flexible base layer, and a plurality of microneedles disposed at one surface of the base layer and including a biodegradable polymer and a drug. Each of a plurality of microneedles is formed as a star-shaped pyramid including a plurality of protrusions extending in a radial direction, and a concave shape is formed between two protrusions adjacent along a circumferential direction among a plurality of protrusions.
TRANSDERMAL DRUG DELIVERY PATCH AND MANUFACTURING METHOD THEREOF
A transdermal drug delivery patch according to an exemplary embodiment of the present invention includes: a flexible base layer; and a plurality of microneedle disposed at one surface of the base layer. Each of the plurality of microneedles includes a biodegradable polymer and a drug and has an empty space inside. Each of the plurality of microneedles is formed as a star-shaped pyramid including a plurality of protrusions extending in a radial direction, and a part between two protrusions adjacent along the circumferential direction among the plurality of protrusions is concave.
APPARATUS AND PROCESS FOR CONTINUOUSLY MANUFACTURING MICRONEEDLES
The present disclosure relates to an apparatus and a process which can continuously produce microneedles using a conveyor system and decomposition or vacuum. By using the microneedle production method and apparatus according to the present disclosure, continuous mass production of microneedles is available, and therefore it is possible to reduce the input of manpower and produce a large amount of products compared to the conventional production method.
Prestretched elastic film in personal hygiene products
Stretched elastic films include a polyolefin, a styrene block copolymer, a non-styrene block copolymer, or a combination thereof. Methods for forming polymeric films and articles of manufacture prepared therefrom are described.