A neural network (NN) processing method is provided. An AI (artificial intelligence) compiler code of an AI compiler is transformed to a garbled circuit code by performing following steps. A circuit graph of a garbled circuit having logic gates corresponding to the garbled circuit code is sent to an electrical device by a server. Key codebooks for candidate gates corresponding to each logic gate are creating by the electrical device. Garbled truth tables for the candidate gates corresponding to each logic pate are generated and transmitted to the server by the electrical device through using OT (Oblivious Transfer) protocol. A target garbled truth table of each logic gate is generated by the server. Afterward, an NN model is encrypted according to the key codebooks by the electrical device and a compiled NN model of an encrypted NN model are generated by the server.

The present disclosure relates to the technical field of printer consumables, in particular to threshold variable feedback circuit, consumable chip and consumables. The feedback circuit comprises a control unit; a feedback module including four different feedback units connected in parallel between the output terminal and the ground; each one of the feedback units comprises a gating component and feedback component that are connected in series between the output terminal and the ground; the control unit is electrically connected with the gating component of each one of the feedback units such that the feedback module selects and outputs an electrical signal of one of the feedback units to the output terminal. Selecting different feedback units can generate different feedback voltages to respond to the verification requirements of the imaging device, so that the consumable can pass the verification of the imaging device.

The present disclosure relates to the technical field of printer consumables, in particular to threshold variable feedback circuit, consumable chip and consumables. The feedback circuit comprises a control unit; a feedback module including four different feedback units connected in parallel between the output terminal and the ground; each one of the feedback units comprises a gating component and feedback component that are connected in series between the output terminal and the ground; the control unit is electrically connected with the gating component of each one of the feedback units such that the feedback module selects and outputs an electrical signal of one of the feedback units to the output terminal. Selecting different feedback units can generate different feedback voltages to respond to the verification requirements of the imaging device, so that the consumable can pass the verification of the imaging device.

A system for integrating and labeling a plurality of tablet orders is described. The system comprises a graphical user interface configured to receive one or more inputs for a plurality of tablets associated with a particular patient. A software module is configured to compile the inputs into an integrated order. The system further comprises an integrated label coupled to a package containing a dose comprised of the plurality of tablets input into the graphical user interface. The integrated label indicates information about the first dose and the second dose.

A system for integrating and labeling a plurality of tablet orders is described. The system comprises a graphical user interface configured to receive one or more inputs for a plurality of tablets associated with a particular patient. A software module is configured to compile the inputs into an integrated order. The system further comprises an integrated label coupled to a package containing a dose comprised of the plurality of tablets input into the graphical user interface. The integrated label indicates information about the first dose and the second dose.

A system for integrating and labeling a plurality of tablet orders is described. The system comprises a graphical user interface configured to receive one or more inputs for a plurality of tablets associated with a particular patient. A software module is configured to compile the inputs into an integrated order. The system further comprises an integrated label coupled to a package containing a dose comprised of the plurality of tablets input into the graphical user interface. The integrated label indicates information about the first dose and the second dose.

A base substrate include a first substrate (110) having a first principal surface (110a) and a second principal surface (110b), and a first wiring member placed over the first or second principal surface. A pixel substrate includes a second substrate (201) having a third principal surface (201a) and a fourth principal surface (201b), a plurality of light-emitting elements (202) mounted over the third principal surface, a driver IC (205) mounted over the third principal surface, an external connection terminal mounted over the third principal surface, and a second wiring member (206) placed on the third or fourth principal surface. The driver IC drives the plurality of light-emitting elements. The external connection terminal receives an input signal that is supplied from outside the pixel substrate. The second substrate (201) is disposed to be stacked on top of the first substrate (110) so that the first principal surface and the fourth principal surface face each other. The second wiring member is electrically connected to the first wiring member by a via hole (215).

A system for integrating and labeling a plurality of tablet orders is described. The system comprises a graphical user interface configured to receive one or more inputs for a plurality of tablets associated with a particular patient. A software module is configured to compile the inputs into an integrated order. The system further comprises an integrated label coupled to a package containing a dose comprised of the plurality of tablets input into the graphical user interface. The integrated label indicates information about the first dose and the second dose.

A display apparatus includes a lower substrate, an upper substrate facing the lower substrate, an optical medium layer between the lower and upper substrates, a display area at which an image is displayed, and a peripheral area adjacent to the display area and at which the image is not displayed. The lower substrate includes a flexible film on a lower base substrate and including a flat portion in the display and peripheral area, and the flat portion extending from the peripheral area and along a side surface of the lower base substrate to define a bent portion in the peripheral area, a thin film transistor on the flexible film in the display area, a connecting line on the flexible film in the peripheral area and electrically connected to the thin film transistor, and a wire grid polarizer between the flexible film and the optical medium layer in the display area.

A system for integrating and labeling a plurality of tablet orders is described. The system comprises a graphical user interface configured to receive one or more inputs for a plurality of tablets associated with a particular patient. A software module is configured to compile the inputs into an integrated order. The system further comprises an integrated label coupled to a package containing a dose comprised of the plurality of tablets input into the graphical user interface. The integrated label indicates information about the first dose and the second dose.