Epson

A metallic glass powder for use in powder bed fusion type additive manufacturing contains: Cr in a content of 10.0 atomic% or more and 20.0 atomic% or less; Mo in a content of 10.0 atomic% or more and 20.0 atomic% or less; C in a content of 10.0 atomic% or more and 20.0 atomic% or less; B in a content of 5.0 atomic% or more and 15.0 atomic% or less; and P in a content of 0.001 atomic% or more and 0.500 atomic% or less, with a balance being Fe and impurities, in which the metallic glass powder has an amorphous structure, and has a difference between a crystallization temperature Tx and a glass transition temperature Tg of 50°C or more and 80°C or less.

A relay device can be connected to at least one peripheral device related to an accounting process. Upon receiving a control request to the peripheral device from a first terminal device configured to accept input related to the accounting process, the control unit can control the peripheral device with the first terminal device as a control entity. Upon receiving a control request to the peripheral device from a second terminal device configured to accept input related to the accounting process after the control according to the control request to the peripheral device from the first terminal device is completed, the control unit can control the peripheral device with the second terminal device as a control entity.

A radiation-curable ink jet ink composition according to an embodiment of the present disclosure contains a polymerizable compound and a photopolymerization initiator. The polymerizable compound contains a polyfunctional polymerizable compound. The photopolymerization initiator contains (2,4,6-trimethylbenzoyl)bis(p-tolyl)phosphine oxide. The content of (2,4,6-trimethylbenzoyl)bis(p-tolyl)phosphine oxide is 3% by mass or more with respect to the total amount of the ink composition. The content of the polyfunctional polymerizable compound is 20% by mass or more with respect to the total amount of the ink composition.

A cellulose-based material of the present disclosure includes cellulose having a crystallinity of 50% or less, and a coating material that coats hydroxy groups on a surface of the cellulose at a coverage of 0.1% or more and 20% or less, in which the coating material is at least one selected from the group consisting of an aliphatic compound, an aromatic compound, and a higher alcohol.

A driver includes a pixel drive circuit configured to drive a pixel of an electro-optical panel by an output voltage corresponding to gradation data via an output terminal TQj, a pre-charge switch SWP having one end electrically coupled to the output terminal TQj, a plurality of pre-charge capacitors CP1 to CP8, each having one end electrically coupled to the other end of the pre-charge switch SWP, a pre-charge capacitor drive circuit configured to drive the other end of each of the pre-charge capacitors based on pre-charge data, and a control circuit configured to output the pre-charge data to the pre-charge capacitor drive circuit. During a pre-charge period, the control circuit turns on the pre-charge switch SWP, and sets the pre-charge data to predetermined data in which the signal supply line becomes a pre-charge voltage.

A print system is a print system including a print apparatus and an information processing apparatus, in which the print apparatus includes a conveying portion, a print unit, and a print control unit, performs printing on a product region by printing a product image on a label based on a print job, and performs printing on an information region to be aligned with the product region in a conveying direction by printing a character string on the label based on the print job, the information processing apparatus includes an information control unit, the print job includes product image data indicating the product image, cut data indicating a cut frame, and character string data indicating the character string, and the print control unit or the information control unit determines whether the character string fits in the cut frame based on the print job, and when the character string does not fit in the cut frame, changes a print form of the character string so as to fit in the cut frame.

A method for producing a molded product (M3) includes:a first step of molding a material containing a cellulose derivative into a molded body (M2), anda second step of performing temperature control in which a molded product (M3) is produced by maintaining the molded body (M2) produced in the first step within a predetermined temperature range for a predetermined time t,wherein, when the phase transition point of the molded body is A(°C), the temperature range in the second step is A-10°C or more and A+50°C or less.

The image reading device of the present disclosure includes a transport section a read section 5 that reads an image on the medium; a control section 6 that processes the read image 14 and that controls transport of the medium, wherein the control section performs an abnormality determination process on the abnormality determination region 13, which is set for the leading edge region of the read image of the medium. The abnormality determination process includes a first step that involves processing the pixels of the read data contained in the abnormality determination region into a state that allows distinction between pixels in an intra-medium region 20 and pixels in an extra-medium region 21, a second step that acquires the maximum distance WL from the center position in the medium width direction to the one edge 24, and the maximum distance WR to the other edge 25, and a third step that determines whether an abnormality exists in the transport state based on each of the maximum distances.

A clasp includes a coupling member having an engaged portion, and a clasp main body. The clasp main body includes an engagement member configured to move to an engagement position and a release position, an operation member configured to move the engagement member from the engagement position to the release position, and a lock device configured to move to an operation restriction position and an operation permission position. The engagement member is configured to be engaged with the engaged portion without operating the operation member in a state in which the engagement member is not engaged with the engaged portion, and the engagement is released by moving the engagement member to the release position by the operation member in a state in which the engagement member is engaged with the engaged portion. When the lock device is moved to the operation restriction position, the engagement member is restricted from moving to the release position by the operation member. The operation member includes a projection portion configured to protrude toward the engagement member side.

A piezoelectric element includes: a lower electrode; a piezoelectric layer having a perovskite structure that includes K and Na in an A-site and includes Nb in a B-site; an upper electrode; and a seed layer having a perovskite structure that includes a first element in an A-site and includes a second element in a B-site and configured to control an orientation of the piezoelectric layer, in which the lower electrode, the seed layer, the piezoelectric layer, and the upper electrode are arranged in this order along a lamination direction, in the piezoelectric layer, the first element and the second element decrease with gradients from bottom to top along the lamination direction, and a degree of the gradient of the first element in the piezoelectric layer is smaller than a degree of the gradient of the second element in the piezoelectric layer.