In the present invention, an image of a verification target medicine disposed on an arrangement unit is captured, prescription condition information indicating a prescription condition is acquired, an external force application unit is caused to execute an external force applying operation of applying an external force to the medicine disposed on the arrangement unit to move the medicine when an operation execution condition is satisfied, wherein the operation execution condition includes at least one of: a first operation execution condition that the number of the verification target medicines appearing in the image differs from the quantity of the medicines specified from the prescription condition information; and a second operation execution condition that a shape of the verification target medicine appearing in the image differs from a shape corresponding to a type of the medicine specified from the prescription condition information.

In the present invention, an image of a verification target medicine disposed on an arrangement unit is captured, prescription condition information indicating a prescription condition is acquired, an external force application unit is caused to execute an external force applying operation of applying an external force to the medicine disposed on the arrangement unit to move the medicine when an operation execution condition is satisfied, wherein the operation execution condition includes at least one of: a first operation execution condition that the number of the verification target medicines appearing in the image differs from the quantity of the medicines specified from the prescription condition information; and a second operation execution condition that a shape of the verification target medicine appearing in the image differs from a shape corresponding to a type of the medicine specified from the prescription condition information.

The present disclosure provides for brewing apparatus, such as a disposable brewing pod, filter, beverage screen, or tea bag, treated with an oil-based solution comprising a lipid component; an emulsifier; and a pharmaceutical, holistic, or medical component. Brewing apparatus may be sprayed with a spray gun, such as a high volume low pressure spray gun, a precision bottle-top dispenser, or an automatic apparatus configured to apply an oil-based solution to the brewing apparatus. The brewing apparatus may be filled with a product to be brewed and packaged for individual use. The present disclosure additionally provides for a brewed drinkable product produced using brewing apparatus treated with an oil-based solution comprising a lipid component; an emulsifier; and a pharmaceutical, holistic, or medical component. The end product may be a hot or cold product.

The present disclosure provides for brewing apparatus, such as a disposable brewing pod, filter, beverage screen, or tea bag, treated with an oil-based solution comprising a lipid component; an emulsifier; and a pharmaceutical, holistic, or medical component. Brewing apparatus may be sprayed with a spray gun, such as a high volume low pressure spray gun, a precision bottle-top dispenser, or an automatic apparatus configured to apply an oil-based solution to the brewing apparatus. The brewing apparatus may be filled with a product to be brewed and packaged for individual use. The present disclosure additionally provides for a brewed drinkable product produced using brewing apparatus treated with an oil-based solution comprising a lipid component; an emulsifier; and a pharmaceutical, holistic, or medical component. The end product may be a hot or cold product.

The present invention relates to a tablet composition comprising a granulate consisting of a co-precipitate on a substrate, wherein the co-precipitate comprises enzalutamide in amorphous form and a cellulosic concentration enhancing polymer. The invention further relates to the use of said composition as a medicament, particularly in the treatment of castration-resistant prostate cancer.

The invention provides a solid-dosage-form printing apparatus comprising: i) a 3D printer suitable for printing solid-dosage-forms, said 3D printer comprising an interchangeable print head selected from the group consisting of: a fused deposition modelling print head, a semi-solid extrusion print head and a direct powder extrusion print head; ii) a build platform; iii) a balance for measuring the mass of the printed solid-dosage-forms, said balance being integrated into said build platform; and optionally iv) means for performing in-line near-infra-red and/or raman spectroscopy on the solid-dosage-form product; wherein said solid-dosage-form comprises at least one active-ingredient and at least one excipient. Further provided are methods of producing solid-dosage-forms using the apparatus, including computer-implemented methods.

Provided is a cell preserving vessel which is protected against damage during storage. The cell preserving vessel 1 includes: a vessel body 10 which is made of a flexible resin member and has a cell accommodating part 11; a cell introducing tube 20 which is connected to the vessel body 10 and through which cells are introduced into the cell accommodating part 11; and a pair of tube protecting parts 40 which are arranged to hold the cell introducing tube 20 therebetween and which protect a vicinity of a joined portion of the cell introducing tube 20, the joined portion being joined to the vessel body 10. The tube protecting parts 40 are preferably constituted by sheet members 50 and 60 that form the vessel body 10.

This present disclosure provides reliable methods and apparatus for delivering microdroplets containing an active pharmaceutical ingredient (API) to underlying substrates. A control system is provided to ensure that the API dosage is both accurate and repeatable.

This present disclosure provides reliable methods and apparatus for delivering microdroplets containing an active pharmaceutical ingredient (API) to underlying substrates. A control system is provided to ensure that the API dosage is both accurate and repeatable.

Method for 3D printing, comprising the following steps: providing a packaging (2′) having at least one recess (3′) for receiving a product (1′), wherein the shape of the recess (3′) corresponds at least in part to the shape of the product (1′) and wherein the recess (3′) forms a protuberance at the other side of the packaging (2′); providing a 3D printer with a print base (5′) having at least one recess (6′) for receiving the protuberance formed by the recess (3′) of the packaging (2′); inserting the packaging (2′) in the print base (5′) such that the protuberance formed by the recess (3′) of the packaging (2′) is received by the recess (6′) of the print base (5′); filling a print head (7′) of the 3D printer with at least one material for printing the product (1′); 3D printing the product (1′) inside the recess (3′) of the packaging (2′), wherein the part of the recess (3′) corresponding to the shape of the product (1′) serves as the mold and print support, resp., for those layers of the product (1′) which are 3D printed first. The method is performed with a system for 3D printing, comprising a packaging (2′) having at least one recess (3′) for receiving a product (1′), wherein the shape of the recess (3′) corresponds at least in part to the shape of the product (1′) and wherein the recess (3′) forms a protuberance at the other side of the packaging (2′); and a 3D printer with a print head (7′) and a print base (5′); characterized in that the print base (5′) has at least one recess (6′) for receiving the protuberance formed by the recess (3′) of the packaging (2′) to support the packaging (2′) with the recess (3′) such that the product (1′) can be 3D printed inside the recess (3′) of the packaging (2′), wherein the part of the recess (3′) corresponding to the shape of the product (1′) serves as the mold and print support, resp., for those layers of the product (1′) which are 3D printed first.