Abstract: To provide a mobile terminal test device capable of performing a test with high efficiency by automatically setting a Band filter. A mobile terminal test device includes a simulated base station unit 2 that performs 5G NR communication with a mobile terminal 10 in accordance with the 5G NR standard, a scenario processing unit 3 that reads a stored scenario and causes the simulated base station unit 2 to transmit notification information or execute a communication sequence with the mobile terminal 10, based on the scenario, and a control unit 6 that, when being connected to the mobile terminal 10, sets, as a Band filter, a band set as a communicable frequency band and transmits the set band to the mobile terminal 10.

Abstract: A solid state imaging element according to an embodiment includes: a converter (14) that converts an analog pixel signal read out from a pixel into a bit value, successively for each of a plurality of bits, on the basis of a threshold voltage set according to a conversion history of the bit converted before a target bit; a plurality of voltage generation units (102a and 102b) that each generate a plurality of reference voltages; and a setting unit (12d) that sets the threshold voltage using the reference voltage selected from the reference voltages generated by each of the voltage generation units on the basis of a conversion result.

Abstract: Provided are a mobile terminal test apparatus, a mobile terminal test system, and a control method for the mobile terminal test apparatus, which can reduce burdens on a user for setting parameters according to a specification of a test. A setting screen is displayed with a first operation image 21 for selecting a specification of a test and a second operation image 22 in which parameter operation images 22a to 22e for setting parameters for executing the test according to the specification selected by an operation with respect to the first operation image 21 are arranged based on parameter hierarchies. With an operation of changing one parameter with respect to the parameter operation images 22a to 22e, lower parameter operation images whose parameter hierarchies are lower than the parameter operation image are updated according to the specification selected by the operation with respect to the first operation image 21.

Abstract: A solid state imaging element (100) includes: a successive approximation type analog-digital conversion circuit (140) converting an analog pixel signal received from a pixel of a pixel array portion (110) to a digital code; and a first noise detection circuit (130-1) connected to a DAC (Digital to Analog Converter) output node inside the successive approximation type analog-digital conversion circuit (140) and detecting power noise supplied to the pixel of the pixel array portion (110) to output a detection result to the DAC.

Abstract: Provided are a mobile terminal test apparatus, a mobile terminal test system, and a control method for the mobile terminal test apparatus, which can reduce burdens on a user for setting parameters according to a specification of a test. A setting screen is displayed with a first operation image 21 for selecting a specification of a test and a second operation image 22 in which parameter operation images 22a to 22e for setting parameters for executing the test according to the specification selected by an operation with respect to the first operation image 21 are arranged based on parameter hierarchies. With an operation of changing one parameter with respect to the parameter operation images 22a to 22e, lower parameter operation images whose parameter hierarchies are lower than the parameter operation image are updated according to the specification selected by the operation with respect to the first operation image 21.

Abstract: A bonding apparatus 1 bonds a film F to a workpiece W, and is provided with a box body B for gripping the film F, a lower vacuum chamber 32 and an upper vacuum chamber 22 demarcated by the film F, an air pressure adjustment device 5 for adjusting the air pressure in the vacuum chambers 22, 32, a movement mechanism 6 for moving the workpiece W, and a control device 7 for controlling the air pressure adjustment device 5 and the movement mechanism 6. The control device 7 reduces the pressure inside the vacuum chambers 22, 32 to a first pressure, then increases the pressure inside the upper vacuum chamber 22 to a second air pressure in a state in which the film F and the workpiece W are brought into contact, and then increases the pressure inside the vacuum chambers 22, 32 to atmospheric pressure.

Abstract: Provided are a method for producing a peptide compound including a step of using an aromatic heterocyclic compound represented by Formula (1) represented by Formula (1); a protective group-forming reagent including the compound; and the compound. In Formula (1), a ring A represents an aromatic heterocyclic ring, YA's each independently represent —OH, —NHR, —SH, or —X0, where X0 represents Cl, Br, or I, RA and RC each independently represent an aliphatic hydrocarbon group or an organic group having an aliphatic hydrocarbon group, RBs' each independently represent a monovalent aliphatic hydrocarbon group, a (1+c)-valent aromatic group, or a (1+c)-valent heteroaromatic group, where, in a case where both a and c is 0, RB is a monovalent aliphatic hydrocarbon group, and the number of carbon atoms in at least one aliphatic hydrocarbon group of RA, RB, or RC is 12 or more.

Abstract: Provided are a method for producing a peptide compound including a step of using a condensed polycyclic aromatic hydrocarbon compound represented by Formula (1); a protective group-forming reagent including the compound; and the compound. In Formula (1), a ring A represents a condensed polycyclic aromatic hydrocarbon ring, YA's each independently represent —CH2OH, —CH2NHR, —CH2SH, or —CH2X0, where R represents a hydrogen atom, an alkyl group, or an aralkyl group, and X0 represents Cl, Br, or I, k represents an integer of 1 to 5, n represents 1 or 2, and RA's each independently represent an aliphatic hydrocarbon group or an organic group having an aliphatic hydrocarbon group.

Abstract: A current sensor includes a bus bar, a magnetic core, and a casing. The bus bar includes a plate-shaped portion. The magnetic core surrounds the plate-shaped portion. The casing houses the bus bar and magnetic core. A thickness direction of the magnetic core is along a longitudinal direction of the plate-shaped portion. The casing includes lower and upper casings. The lower casing includes first and second press-fit portions. The first press-fit portion includes a groove portion into which the plate-shaped portion is press-fitted. In a state where the magnetic core is inserted downward into the second press-fit portion, both-side portions of the magnetic core in a width direction are press-fitted and held by the second press-fit portion. The upper casing includes a pressing portion that presses the bus bar and magnetic core downward. The groove portion is recessed downward, and is along a thickness direction of the magnetic core.

Abstract: A solid state imaging element (100) includes: a successive approximation type analog-digital conversion circuit (140) converting an analog pixel signal received from a pixel of a pixel array portion (110) to a digital code; and a first noise detection circuit (130-1) connected to a DAC (Digital to Analog Converter) output node inside the successive approximation type analog-digital conversion circuit (140) and detecting power noise supplied to the pixel of the pixel array portion (110) to output a detection result to the DAC.

Abstract: A solid state imaging element according to an embodiment includes: a converter (14) that converts an analog pixel signal read out from a pixel into a bit value, successively for each of a plurality of bits, on the basis of a threshold voltage set according to a conversion history of the bit converted before a target bit; a plurality of voltage generation units (102a and 102b) that each generate a plurality of reference voltages; and a setting unit (12d) that sets the threshold voltage using the reference voltage selected from the reference voltages generated by each of the voltage generation units on the basis of a conversion result.

Abstract: There is provided a medical needle with a protector that allows separately molded hub and protector to be easily assembled together. A medical needle with a protector (1) includes: a hub (3) that supports a needle tube (2); a protector (4) capable of storing the needle tube (2); a first lock unit (42a, 42b, 73) that locks the hub (3) to the protector (4) capable of unlocking in a first state; and a second lock unit (43, 75) that locks the hub (3) to the protector (4) incapable of a transition to the first state in a second state. The protector includes a large cylindrical portion (41), a protrusion piece (43), and a width-increased portion (42). The width-increased portion (42) is provided on the outer peripheral side of the protrusion piece (43) and has a minor axis and a major axis. The protrusion piece (43) is formed integrally with the large cylindrical portion (41) on the major axis side of the width-increased portion (42).

Abstract: A medical needle with a protector (1) includes: a hub (3) that supports a needle tube (2); a protector (4) capable of storing the needle tube (2); a first lock unit (42a, 42b, 73) that locks the hub (3) to the protector (4) capable of unlocking; and a second lock unit (43, 44, 74, 75) that locks the hub (3) to the protector (4) incapable of unlocking. The hub front end has a pair of first protrusion portions (74) in the vertical direction and a pair of second protrusion portions (75) in the horizontal direction. The protector rear end has a pair of protrusion pieces (43) in the horizontal direction and a pair of side wall portions (44) in the vertical direction. The space between the side wall portions (44) is the width of the protrusion portions (74 and 75) or larger and the height of the same or smaller.

Abstract: A compound represented by Formula [3] or a salt thereof and a method of making the same, in the formula, L3 represents a group represented by Formula [2c] wherein R3c, R4c, R5c, and R6c are the same as or different from each other and represent a hydrogen atom or a C1-6 alkyl group; p3 represents an integer of 1 to 3; q3 represents an integer of 0 to 3; and r3 represents an integer of 1 to 6; A1 represents any one of the groups represented by Formulae [4] to [9], wherein * represents a binding position; and R7 represents a carboxyl-protecting group; and m represents an integer of 1 to 3.

Abstract: A current sensor includes a bus bar, a magnetic core, and a casing. The bus bar includes a plate-shaped portion. The magnetic core surrounds the plate-shaped portion. The casing houses the bus bar and magnetic core. A thickness direction of the magnetic core is along a longitudinal direction of the plate-shaped portion. The casing includes lower and upper casings. The lower casing includes first and second press-fit portions. The first press-fit portion includes a groove portion into which the plate-shaped portion is press-fitted. In a state where the magnetic core is inserted downward into the second press-fit portion, both-side portions of the magnetic core in a width direction are press-fitted and held by the second press-fit portion. The upper casing includes a pressing portion that presses the bus bar and magnetic core downward. The groove portion is recessed downward, and is along a thickness direction of the magnetic core.

Abstract: In a shift lever device, a lock bar is disposed in a restricting position to restrict changing of a shift position of a lever. A motor is driven to rotate a cam in order to move the lock bar to a non-restricting position, thereby permitting changing of the shift position of the lever. The lock bar is moved as the rotation position of the cam is changed. This enables the precision required of the rotation position of the cam in order to dispose the lock bar in the restricting position and the non-restricting position to be lowered, thereby enabling appropriate switching between restriction and permission of changes in shift position of the lever to be performed by driving of the motor.

Abstract: An image generating apparatus for generating an output image based on an input panorama image, includes a parameter input unit inputting an output range parameter and a correction parameter, the output range parameter designating an output range in the panorama image, the correction parameter designating a correction part to be corrected in the output image; and an image correction unit correcting the correction part designated by the correction parameter in the output image. Further, the image correction unit calculates a similarity between the correction part and peripheral pixels and corrects the correction part based on the similarity and the peripheral pixels, and the output image is generated from the output range of the panorama image and is the panorama image corrected by the correction.

Abstract: In a specific state where an electric vehicle is in a stop state and a creep torque is generate in an electric motor (2), when a shift range is switched from a traveling range to a non-traveling range, a motor control section (10B) performs a torque decrease control to stepwisely decrease the creep torque of the electric motor (2), and an automatic transmission control device (30) performs a disengagement control to gradually disengage the frictional engagement element of the automatic transmission (3).

Abstract: The present technology relates to a semiconductor integrated circuit which operates with a low voltage and is capable of preventing destruction of a protection circuit and a control method thereof. The semiconductor integrated circuit includes a resistance element and a capacitance element connected between a power supply line and a ground line in series, an inverter of which an input is connected between the resistance element and the capacitance element, a MOS transistor of which a gate electrode is connected to an output of the inverter and a drain electrode and a source electrode are respectively connected to the power supply line and the ground line, and a current limit element inserted between a well region where the MOS transistor is formed and the gate electrode. The present technology is applied to, for example, the protection circuit for preventing destruction of an internal circuit by ESD and the like.

Abstract: Disclosed are a compound and a pharmaceutical composition that exhibit an excellent drug efficacy against a tumor, in particular a tumor which has acquired resistance to gemcitabine. Specifically, provided is a thionucleoside derivative represented by General (in the formula, R1 represents a hydroxyl group which may be protected, a C1-20 alkoxy group which may be substituted, or the like; R2 represents a C1-20 alkoxy group which may be substituted, a C3-8 cycloalkoxy group which may be substituted, or the like; and R3 represents a hydrogen atom or the like); or a salt thereof. Further, provided is a pharmaceutical composition containing such a thionucleoside derivative or a salt thereof.