Abstract: A processing device of sheet mediums, in particular, a full-automatic stacking and bundling device of notes and the like. The bundling device mainly comprises a sheet medium stacking mechanism (900, 902), a bundling mechanism (999) and a pinching mechanism (904), the bundling mechanism mainly comprising a paper belt looping mechanism (400), a hot-pressing and bonding mechanism (200) and a paper belt cutting-off mechanism. The paper belt looping mechanism comprises a guide groove for guiding the paper belt; the head and the tail of the guide groove are connected to form a conveying loop; an opening (4032) of the guide groove faces an inner side of the conveying loop; a bottom part (4031) of the guide groove is provided with a paper-belt inserting port and at least one paper-belt conveying wheel; and an opening end of a side wall of the guide groove is provided with an elastic guide piece (408) parallel to the bottom part of the guide groove.

Abstract: Disclosed in the present invention is a sheet-type medium stacking and guiding device, also disclosed in the present invention are a control system and a method based on the same. The device comprises: a left limiting plate (14) and/or a right limiting plate (19), which locate at the outer end of a medium passage made up of a left and a right passage plate (301, 304); a driving mechanism (25), which is in transmission connection with the limiting plates and drives the limiting plates to move along the longitudinal direction of the medium. The system comprises a central control module (901), a detection module (902), a data processing module (903), an image acquisition module (904), a storage module (905) and an execution module (906).

Abstract: Aspects of the present invention include a low-dropout (LDO) linear power supply system. The system includes a pass-element configured to generate an output voltage at an output based on an input voltage. The system also includes a compensation amplifier stage coupled to the output and configured to provide frequency compensation and provide a desired frequency response of the output voltage. The system further includes a gain amplifier stage interconnecting the compensation amplifier stage and the pass-element and configured to provide DC gain scaling to generate the output voltage substantially proportional to the input voltage within a given range of the input voltage.

Abstract: Aspects include power supply systems. An error amplifier can generate an error voltage based on feedback associated with an output voltage to a reference voltage. A PWM generator can generate a PWM signal based on the error voltage. A power stage can generate the output voltage based on the PWM signal. The power stage can include a transconductance amplifier that generates a temperature-compensated sense current associated with a magnitude of an output current. An output voltage tuning circuit sets a desired magnitude of the output voltage based on at least one digital signal to adjust the reference voltage and the feedback voltage. An oscillator system generates a clock signal based on repeatedly charging and discharging a capacitor based on the clock signal and a comparator that compares the capacitor voltage and a second voltage having a magnitude that changes based on the state of the clock signal.

Abstract: A guider for conveying a sheet-shaped object comprises two side plates; two wheel components arranged in parallel between the two side plates, a top channel plate being disposed on a top portion of the wheel components; and a lifting channel plate disposed between the two wheel components and the top channel plate, the lifting channel plate forming a horizontal channel with the top channel plate, and respectively forming lateral channels with the two wheel components. The lifting channel plate is disposed on the two side plates in a height-adjustable manner. The guider further comprises: a first driving device for driving the lifting channel plate to move up and down; a reversing member hinged between the two lateral channels and used for switch between the two lateral channels; and a second driving device for driving the reversing member to rotate.

Abstract: A bundling apparatus for sheet-type medium is used for stacking and bundling sheet-type medium. The bundling apparatus for sheet-type medium comprises a banknote delivery channel (11), a bundling mechanism (13) and a position switching mechanism (14), a banknote stacking position (61) formed at the end of the banknote delivery channel as well as a bundling position (62) formed corresponding to the bundling mechanism, the position switching mechanism (14) comprising a rotating power shaft (41) driven by an electric motor and at least two banknote stacking plates (51) installed evenly on the power shaft. When any banknote stacking plate is located in the banknote stacking position, a corresponding banknote stacking plate is located in the bundling position. The present invention achieves the transition between the motion of stacking and bundling the sheet-type medium, improves work efficiency and saves space.

Abstract: Aspects of the present invention include a power supply system comprising a plurality of power supplies. Each of the power supplies can include an oscillator system configured to generate a clock signal at a clock node. Each of the power supplies can include an error amplifier configured to generate an error voltage at an error amplifier output node. Each of the power supplies can also include a pulse-width modulation (PWM) generator configured to generate a PWM switching signal based on an error voltage and the clock signal. Each of the power supplies can further include a power stage configured to generate an output voltage based on the PWM switching signal.

Abstract: A guider for conveying a sheet-shaped Object comprises two side plates (13, 14); two wheel components (7, 11) arranged in parallel between the two side plates (13, 14), a top channel plate (9) being disposed on the wheel components; and two side channel components (10, 8) disposed between the two wheel components (7, 11) and the top channel plate (9), the two side channel components (10, 8) forming a horizontal channel with the top channel plate (9), and each forming a lateral channel with the wheel component at the same side, two ends of the side channel component being respectively hinged on the two side plates (13, 14).

Abstract: A switchable note-picking device (1) used at a note inlet of a note processing device comprises a note-bearing platform (17), a note-picking mechanism (13) for picking notes on the note-bearing platform (17) and a note-classifying mechanism (11) for classifying the picked notes. The note-classifying mechanism (11) comprises a note-classifying shaft (112) and a note-classifying wheel fixed on the note-classifying shaft (112). The switchable note-picking device (1) further comprises a driving component (15) for driving the note-picking mechanism (13) hidden below the note-bearing platform (17) to be exposed out of the note-bearing platform (17) and contact with the notes. By the driving component (15), the note-picking mechanism (13) is exposed out of the note-bearing platform (17) when picking notes and hidden below the note-bearing platform (17) when being free from picking notes, so that the switchable note-picking device (1) can stop deposition and deposit a specified amount of notes.

Abstract: A paper money transmission and storage device with locking mechanism in financial equipment comprises a paper money transmission channel (1) and a cashbox set (2) for storing paper money, wherein the cashbox set (2) is mounted in a cashbox set bracket (21) which is a box of which one side is covered by the overturned paper money transmission channel (1). An end of the paper money transmission channel (1) is pivoted to a side wall (212) of the cashbox set bracket (21).

Abstract: A LC compound and a LC mixture are provided. The LC mixture includes a compound represented by (I) and at least one compound selected from a group consisting of compounds represented by (II) to (IV): in which X1 is F, —Cl, —CF3, or —OCF3; R, R11, and R12 are independently H, a C1-C15 alkyl group, or a C2-C15 alkenyl group; A1 is 1,4-phenylene; A11, A12, A13, and A14 are independently selected from a group consisting of 1,4-phenylene, 1,4-cyclohexylene, and 2,5-tetrahydropyranylene; at least one of A2, A3, and A4 is 2,5-indanylene, and the others are independently selected from a group consisting of 1,4-phenylene, 1,4-cyclohexylene, and 2,5-tetrahydropyranylene; L1 is —F2CO—; Z11, Z12, and Z13 are independently a single bond, —O—, —F2CO—, or —COO—; m is 1; n, o and p are independently 0, 1, 2 or 3, and n+o+p?3.

Abstract: A paper money transmission and storage device with locking mechanism in financial equipment comprises a paper money transmission channel (1) and a cashbox set (2) for storing paper money, wherein the cashbox set (2) is mounted in a cashbox set bracket (21) which is a box of which one side is covered by the overturned paper money transmission channel(1). An end of the paper money transmission channel (1) is pivoted to a side wall (212) of the cashbox set bracket (21).

Abstract: A bidirectional bill transmission channel device (02) with multi-path steering, which is arranged between an upper core (01) having functions of recognizing and separating bill and a lower core (03) for storing bill, is used for transmitting and separating bill in a reversing way. The device (02) comprises a channel bracket (0200), a power shaft (0203) mounted on the channel bracket (0200), a transmission belt (0202), channel boards (02041, 02042), an auxiliary transmission wheel set (0205) and a corner guide plate (0210), wherein floating wheels (0211, 0211?) are provided in a steering transmission route formed by the corner guide plate (0210) and the power shaft (0203), the floating wheels (0211, 0211?) correspond to the power shaft (0203) for transmission belt (0202), and form rolling friction assembly with the belt (0202).

Abstract: A LC compound and a LC mixture are provided. The LC mixture includes a compound represented by (I) and at least one compound selected from a group consisting of compounds represented by (II) to (IV): in which X1 is F, —Cl, —CF3, or —OCF3; R, R11, and R12 are independently H, a C1-C15 alkyl group, or a C2-C15 alkenyl group; A1 is 1,4-phenylene; A11, A12, A13, and A14 are independently selected from a group consisting of 1,4-phenylene, 1,4-cyclohexylene, and 2,5-tetrahydropyranylene; at least one of A2, A3, and A4 is 2,5-indanylene, and the others are independently selected from a group consisting of 1,4-phenylene, 1,4-cyclohexylene, and 2,5-tetrahydropyranylene; L1 is —F2CO—; Z11, Z12, and Z13 are independently a single bond, —O—, —F2CO—, or —COO—; m is 1; n, o and p are independently 0, 1, 2 or 3, and n+o+p?3.

Abstract: A method of separating components having a given negative or positive charge and contained in a sample is disclosed. The method involves, in one embodiment, loading a microchannel with a sample, placed between a trailing-edge electrolyte having a selected concentration of a titratable species, and a leading-edge electrolyte.

Abstract: A method and device for injecting a liquid sample into an electrolyte channel in a microfluidics device is disclosed. The device has a channel network that includes an electrolyte channel having upstream and downstream channel portions and first, second, and third side channels that intersect the electrolyte channel between the two channel portions at first, second, and third ports, respectively. In the method, a sample is moved electrokinetically into the electrolyte channel, to form a defined sample volume therein. By simultaneously controlling the voltage applied to the three side channels, and at least one of the upstream and downstream channel end portions, the sample volume element can be shaped to have a desired leading- and trailing-edge shape and/or distribution of sample components within the volume elements.

Abstract: A method of separating components having a given negative or positive charge and contained in a sample is disclosed. The method involves, in one embodiment, loading a microchannel with a sample, placed between a trailing-edge electrolyte having a selected concentration of a titratable species, and a leading-edge electrolyte.

Abstract: A method of separating components having a given negative or positive charge and contained in a sample is disclosed. The method involves, in one embodiment, loading a microchannel with a sample, placed between a trailing-edge electrolyte having a selected concentration of a titratable species, and a leading-edge electrolyte.

Abstract: A method of separating components having a given negative or positive charge and contained in a sample is disclosed. The method involves, in one embodiment, loading a microchannel with a sample, placed between a trailing-edge electrolyte having a selected concentration of a titratable species, and a leading-edge electrolyte.

Abstract: A method and device for injecting a liquid sample into an electrolyte channel in a microfluidics device is disclosed. The device has a channel network that includes an electrolyte channel having upstream and downstream channel portions and first, second, and third side channels that intersect the electrolyte channel between the two channel portions at first, second, and third ports, respectively. In the method, a sample is moved electrokinetically into the electrolyte channel, to form a defined sample volume therein. By simultaneously controlling the voltage applied to the three side channels, and at least one of the upstream and downstream channel end portions, the sample volume element can be shaped to have a desired leading- and trailing-edge shape and/or distribution of sample components within the volume elements.