Abstract: A water intrusion prevention system for a roof top sensor module includes a bolt, a cap nut, gaskets, and a rib. The module is connected to a roof of an autonomous vehicle, and includes a shell defining an interior and a sensor arranged therein. A shaft of the bolt is inserted up through an opening in the roof, up through an opening in the shell, and up through an opening in the rib so that a top portion of the shaft is arranged in the interior. The top portion of the shaft and the cap nut are connected together in the interior, which connects the module to the roof. The cap nut and the gaskets together form a liquid-tight seal that prevents liquid/water in the interior of the shell from passing through the opening in the roof into an interior of the vehicle under the roof.

Abstract: An autonomous vehicle roof top sensor module includes a shell attached to a roof of an autonomous vehicle. The shell includes a top panel, a bottom panel, and a front panel, which are connected together to define an interior, in which an internal sensor bracket is arranged to support a front middle portion of the top panel and provides a structure for mounting a sensor. The sensor is mounted on the sensor bracket and detects a characteristic of the autonomous vehicle or a characteristic of an environment surrounding the autonomous vehicle. The sensor bracket connects the front middle portion of the top panel to the bottom panel, and thus inhibits sagging of the top panel, and also provides a structure for mounting sensors in the shell.

Abstract: The present invention includes: an identification code generation unit that generates, from information of a company code including a first code that uniquely identifies a management target in a part of a company in the part of the company and a second code that identifies the part of the company, an identification code including a history of the management target; a hash processing unit that hashes the identification code generated by the identification code generation unit according to a hash function and converts the hashed identification code into a meaningless code; and a reference code generation unit that generates a reference code unified for the entire company based on the meaningless code converted by the hash processing unit.

Abstract: An autonomous vehicle roof top sensor module includes a shell configured to attach to a roof of an autonomous vehicle. The shell defines an interior in which a sensor is arranged. The sensor is for detecting a characteristic of the autonomous vehicle or a characteristic of an environment surrounding the autonomous vehicle. The shell includes two flanges, each of which includes two lifting features arranged thereon. The lifting features provide a connection point in the form of a through hole for attaching a mechanical lift system to the shell for lifting of the shell onto the roof. The module also includes two appliques that are attach to the roof and cover the lifting features, the flanges, and two portions of the roof not covered by the shell.

Abstract: An electrophotographic belt comprising: a substrate and an elastic layer on an outer peripheral surface of the substrate, the elastic layer comprising a cured rubber product including a cured silicone rubber product, an elastic modulus of the elastic layer at a temperature of 23° C. being 1.00 MPa or less, wherein when 1 g sample collected from the elastic layer is immersed in 50 ml of toluene at a temperature of 23° C. for 24 hours in accordance with Japanese Industrial Standard (JIS) K6258:2016, an extract of 3% by mass to 20% by mass with respect to the sample is extracted, and a burning time of the elastic layer in a burn test in accordance with UL94 VTM standard is 30 seconds or less.

Abstract: An electrode structure includes: a plurality of pixel electrodes arranged separately from each other; and a plurality of dielectric layers laminated in a first direction with respect to the plurality of pixel electrodes, in which the plurality of dielectric layers includes: a first dielectric layer that spreads over the plurality of pixel electrodes in a direction intersecting with the first direction; and a second dielectric layer that includes dielectric material having a refractive index higher than that of the first dielectric layer, sandwiches the first dielectric layer together with the plurality of pixel electrodes, and has a slit at a position overlapping space between pixel electrodes adjacent when viewed from the first direction.

Abstract: In a heat exchanger, an outer diameter of a plurality of heat transfer pipes is defined as Do, a wall thickness is defined as tP, an area represented by a numerical expression of a row pitch L1×a step pitch L2 is defined as A, and an area represented by a numerical expression of ((Do?2×tP)/2)2×? is defined as B, a relation of Do<5.5 mm, a relation of (0.2076×tP2?0.1480×tP+0.0545)×Do{circumflex over (?)}(?0.0021×tP2?0.0528×tP+0.0164)?B/A?(0.0219×tP2?0.0185×tP+0.0043)×ln (Do)+(1.6950×tP2+1.8455×tP+1.5416), and a relation of B/A<0.0076×tP2?0.0417×tP+0.0574 are satisfied.

Abstract: There is provided droplet discharging apparatus including: nozzle configured to discharge liquid by energy generating element; first signal generator configured to generate, based on first and second data representing first and second driving waveforms, first time division multiplex signal; first separator configured to separate first or second driving waveform signal representing the first or second driving waveform from the first time division multiplex signal; second signal generator configured to generate, based on third and fourth data representing third and fourth driving waveforms, second time division multiplex signal; and second separator configured to separate third or fourth driving waveform signal representing the third or fourth driving waveform from the second time division multiplex signal. The energy generating element is driven by the first or second driving waveform signal separated by the first separator, or by the third or fourth driving waveform signal separated by the second separator.

Abstract: There is provided an image pickup element including a non-planar layer having a non-planar light incident surface in a light receiving region, and a microlens of an inorganic material which is provided on a side of the light incident surface of the non-planar layer, and collects incident light.

Abstract: A heat exchanger includes: a first heat exchanger configured to transfer heat between air and refrigerant; and a second heat exchanger provided in series with the first heat exchanger in a first direction that is a flow direction of the air, and configured to transfer heat between the air and the refrigerant. The first heat exchanger includes first heat transfer tubes through which the refrigerant flows, which are spaced apart from each other in a second direction intersecting the first direction, and each of which has a tube axis extending in a third direction intersecting the first and second directions. The second heat exchanger includes: second heat transfer tubes though which the refrigerant flows, which are spaced apart from each other in the second direction, and each of which has a tube axis extending in the third direction; and a corrugated fin provided between the second heat transfer tubes.

Abstract: A printing device includes a nozzle, a multiplexing part configured to generate a time-division multiplexed signal based on first data indicating a first driving waveform and second data indicating a second driving waveform, different from the first driving waveform, and a separator configured to separate a first driving waveform signal indicating the first driving waveform or a second driving waveform signal indicating the second drive waveform from the time-division multiplexed signal. The energy generating element is driven based on the separated first driving waveform signal or the separated second driving waveform signal.

Abstract: An outdoor heat exchanger includes: a group of windward flat tubes, a group of leeward flat tubes and a distributor. When the outdoor heat exchanger acts as an evaporator, the refrigerant flows through the plurality of second flat tubes, the plurality of fourth flat tubes, the plurality of third flat tubes, and the plurality of first flat tubes in this order, and when the outdoor heat exchanger acts as a condenser, the refrigerant flows through the plurality of first flat tubes, the plurality of third flat tubes, the plurality of fourth flat tubes, and the plurality of second flat tubes in this order.

Abstract: A cylinder apparatus is provided with a stopper mechanism that operates when a piston rod extends and moves toward an upper end portion in an inner cylinder. This stopper mechanism includes a second cylinder provided movably relative to the piston rod and including a bottom portion on an upper end side in the inner cylinder and a cylinder portion extending from the bottom portion toward a lower end side, and a second piston provided so as to be able to move along with a movement of the piston rod to be fitted to the second cylinder. While being configured in this manner, the cylinder apparatus is configured in such a manner that a spring member 21 is provided between the second cylinder and a rod guide.

Abstract: A printing apparatus includes a first digital synthesizer configured to generate a first basic analog synthesis signal by synthesizing n (n is a natural number greater than or equal to 2) pieces of digital data, which indicating driving waveforms used to drive an energy generating element to cause a nozzle to eject liquid, and converting the same an analog signal, the n being a natural number greater than or equal to 2, an integrated signal synthesizer configured to generate an integrated analog signal by synthesizing the first basic analog synthesis signal and one or more analog waveform signals, and a separator configured to separate one of a driving waveform signal indicated by one of the n pieces of digital data and driving waveform signals indicated by the one or more analog waveform signals from the integrated analog signal.

Abstract: A shock absorber includes: a first passage through which a working fluid flows from a chamber inside a cylinder; a second passage which communicates with the chamber; a damping force generation mechanism which is provided in the first passage, a communication hole which is provided with at least a part of a passage of the second passage and is formed in a piston rod communicating with at least the chamber; a housing which has a passage of least a part of the second passage; a free piston which is movably provided inside the housing and defines the second passage into an upstream side and a downstream side of a flow of the working fluid when the piston moves in one direction, and an elastic body which is provided between the free piston and the housing. The free piston is formed of a resin material.

Abstract: A printing device comprises a nozzle configured to eject liquid by an energy generating element, and a signal generator configured to generate a time-division multiplexed signal where first data indicating a first drive waveform and second data indicating a second drive waveform are multiplexed transmittable through a single signal line. The time-division multiplexed signal included a first part and a second part of the first drive waveform, and a third part and a fourth part of the second drive waveform. The third part is arranged between the first part and the second part, and the second part is arranged between the third part and the fourth part. The printing device further comprises a separator configured to separate one of a first drive waveform signal indicating the first drive waveform and a second drive waveform signal indicating the second drive waveform from the time-division multiplexed signal.

Abstract: A semiconductor device according to the disclosure includes a substrate, a semiconductor chip provided on the substrate, a nut, a lead frame provided on the semiconductor chip and the nut and screwed to the nut, a nut box accommodating the nut and having an opening which exposes the nut downward formed in a bottom portion and solder provided at least between the semiconductor chip and the substrate or the lead frame.

Abstract: A laser beam irradiation unit of a laser processing apparatus includes a laser oscillator that emits a laser beam, a characteristic conversion optical element that converts a characteristic of the laser beam emitted from the laser oscillator, a mirror and a collecting lens that are optical elements that guide the laser beam to a workpiece, a detecting unit that detects the water retention state of the characteristic conversion optical element, and a drying unit that dries the characteristic conversion optical element.

Abstract: A producing method of a power storage device includes roll pressing a mixture laminated portion of a wide strip-shaped electrode plate, non-laminated-portion stretching of stretching a pair of mixture non-laminated portions of the wide strip-shaped electrode plate in a longitudinal direction, laminated-portion stretching of stretching a pair of mixture non-laminated-portion-side sections of the mixture laminated portion located on the mixture non-laminated portion side, cutting the wide strip-shaped electrode plate at a center of a width direction in the longitudinal direction to divide into two strip-shaped electrode plates, winding up the two strip-shaped electrode plates around winding cores with applying tensile force in the longitudinal direction in a roll-like shape to form electrode rolls, and storing each of the electrode rolls.

Abstract: There is provided a printing apparatus including: a nozzle; a head; a signal generating circuit configured to generate, based on at least a first data representing a first driving waveform and a second data representing a second driving waveform different from the first driving waveform, a time division multiplex signal; a separating circuit to which the time division multiplex signal is inputted and which includes a switch configured to separate, from the time division multiplex signal, a first driving waveform signal representing the first driving waveform or a second driving waveform signal representing the second driving waveform, based on a synchronization signal; and a synchronization signal generating circuit configured to generate the synchronization signal indicating an opening and closing timing of the switch. The synchronization signal generating circuit is a circuit different from the signal generating circuit.