mhurhangee/ep-ind-claims huggingface dataset:
A printing apparatus comprising: a container for a liquid configured to contain a liquid to be supplied to a print head configured to eject the liquid, the container including an injection port configured to enable a user to inject the liquid; a supply channel used to supply the liquid from the container to the print head; an on-off valve mechanism disposed at the supply channel and configured to be switched between an open state to establish communication of the supply channel and a closed state not to establish communication of the supply channel; and a valve unit disposed at the supply channel between the container and the on-off valve mechanism and configured to be switched between an open state to establish communication of the supply channel and a closed state not to establish communication of the supply channel, characterized in that the on-off valve mechanism is configured to be switched by an automatic operation and is configured to be switched by a manual operation. a container for a liquid configured to contain a liquid to be supplied to a print head configured to eject the liquid, the container including an injection port configured to enable a user to inject the liquid; a supply channel used to supply the liquid from the container to the print head; an on-off valve mechanism disposed at the supply channel and configured to be switched between an open state to establish communication of the supply channel and a closed state not to establish communication of the supply channel; and a valve unit disposed at the supply channel between the container and the on-off valve mechanism and configured to be switched between an open state to establish communication of the supply channel and a closed state not to establish communication of the supply channel, characterized in that the on-off valve mechanism is configured to be switched by an automatic operation and is configured to be switched by a manual operation.
A method of assembling a hardscaping unit, the method comprising the steps of: placing a first material into a first mold; while the first material is in the first mold, transitioning the first material from a first state to a second state, wherein the second state is more solid than the first state, and when in the second state the first material forms a first block, wherein the first block includes at least one contacting surface; removing the first block from the first mold; placing a second material into a second mold; contacting the at least one contacting surface of the first block with the second material, while the second material is in the second mold; after the contacting step, maintaining contact of the at least one contacting surface of the first block with the second material while transitioning the second material from a third state to a fourth state, wherein the fourth state is more solid than the third state, and when in the fourth state the second material forms a second block that is secured relative to the first block; after the maintaining step, removing the second block from the second mold; characterized in that the first material includes a dry cast concrete, the first material having a water to cement ratio of between about 0.3 to about 0.36, the second material includes a wet cast concrete, the second material having a water to cement ratio of about 0.4 or higher. placing a first material into a first mold; while the first material is in the first mold, transitioning the first material from a first state to a second state, wherein the second state is more solid than the first state, and when in the second state the first material forms a first block, wherein the first block includes at least one contacting surface; removing the first block from the first mold; placing a second material into a second mold; contacting the at least one contacting surface of the first block with the second material, while the second material is in the second mold; after the contacting step, maintaining contact of the at least one contacting surface of the first block with the second material while transitioning the second material from a third state to a fourth state, wherein the fourth state is more solid than the third state, and when in the fourth state the second material forms a second block that is secured relative to the first block; after the maintaining step, removing the second block from the second mold; characterized in that the first material includes a dry cast concrete, the first material having a water to cement ratio of between about 0.3 to about 0.36, the second material includes a wet cast concrete, the second material having a water to cement ratio of about 0.4 or higher.
A brake controlling apparatus of a braking device including a booster valve (50, 51, 52, 53) to be opened at a time of request to boost a pressure of a brake liquid to supply to a wheel (W FR, W RL, W RR, W FL) to be controlled, and a piston pump (69A, 69B) for supplying pressurized brake liquid to an upstream side of the booster valve (50, 51, 52, 53), the brake controlling apparatus comprising: a brake liquid pressure controlling means that sets a duty ratio between a closing period (Tvclose) and a opening period (Tvopen) of the booster valve (50, 51, 52, 53) so that the opening period (Tvopen) of the booster valve (50, 51, 52, 53) becomes at least a dischargeable period (Tpq) of the brake liquid in the piston pump (69A, 69B), and controls the booster valve (50, 51, 52, 53) based on the duty ratio, characterized in that the brake liquid pressure controlling means sets the duty ratio of the booster valve (50, 51, 52, 53) so that the opening period (Tvopen) of the booster valve (50, 51, 52, 53) becomes at least a period of longer than or equal to one cycle (Tp) of the piston pump (69A, 69B), wherein the brake liquid pressure controlling means sets the duty ratio of the booster valve (50, 51, 52, 53) so that the opening period (Tvopen) of the booster valve (50, 51, 52, 53) becomes at least an inverse number of an output rotation number per one second of an electric motor as a driving source of the piston pump (69A, 69B), and wherein the brake liquid pressure controlling means is configured to set said duty ratio of the booster valve (50, 51, 52, 53) when a master cylinder pressure to apply on the upstream side of the booster valve (50, 51, 52, 53) is lower than the pressure of the brake liquid to the wheel (W FR, W RL, W RR, W FL) to be controlled. a brake liquid pressure controlling means that sets a duty ratio between a closing period (Tvclose) and a opening period (Tvopen) of the booster valve (50, 51, 52, 53) so that the opening period (Tvopen) of the booster valve (50, 51, 52, 53) becomes at least a dischargeable period (Tpq) of the brake liquid in the piston pump (69A, 69B), and controls the booster valve (50, 51, 52, 53) based on the duty ratio, characterized in that the brake liquid pressure controlling means sets the duty ratio of the booster valve (50, 51, 52, 53) so that the opening period (Tvopen) of the booster valve (50, 51, 52, 53) becomes at least a period of longer than or equal to one cycle (Tp) of the piston pump (69A, 69B), wherein the brake liquid pressure controlling means sets the duty ratio of the booster valve (50, 51, 52, 53) so that the opening period (Tvopen) of the booster valve (50, 51, 52, 53) becomes at least an inverse number of an output rotation number per one second of an electric motor as a driving source of the piston pump (69A, 69B), and wherein the brake liquid pressure controlling means is configured to set said duty ratio of the booster valve (50, 51, 52, 53) when a master cylinder pressure to apply on the upstream side of the booster valve (50, 51, 52, 53) is lower than the pressure of the brake liquid to the wheel (W FR, W RL, W RR, W FL) to be controlled.
An enhanced Long Range Navigation, eLORAN, system comprising: an eLORAN controller configured to obtain satellite-derived conductivity data and satellite-derived temperature data for different geographical positions, wherein the source of these data is from one or more satellites, and generate eLORAN correction factors based thereon; a plurality of eLORAN transmitter stations (40a - 40n); and at least one eLORAN receiver device comprising: an eLORAN receive antenna, an eLORAN receiver coupled to the eLORAN receive antenna and configured to receive the eLORAN correction factors, and a controller coupled to the eLORAN receiver and configured to cooperate with said plurality of eLORAN transmitter stations to determine an eLORAN receiver position corrected based upon the eLORAN correction factors. an eLORAN controller configured to obtain satellite-derived conductivity data and satellite-derived temperature data for different geographical positions, wherein the source of these data is from one or more satellites, and generate eLORAN correction factors based thereon; a plurality of eLORAN transmitter stations (40a - 40n); and at least one eLORAN receiver device comprising: an eLORAN receive antenna, an eLORAN receiver coupled to the eLORAN receive antenna and configured to receive the eLORAN correction factors, and a controller coupled to the eLORAN receiver and configured to cooperate with said plurality of eLORAN transmitter stations to determine an eLORAN receiver position corrected based upon the eLORAN correction factors. an eLORAN receive antenna, an eLORAN receiver coupled to the eLORAN receive antenna and configured to receive the eLORAN correction factors, and a controller coupled to the eLORAN receiver and configured to cooperate with said plurality of eLORAN transmitter stations to determine an eLORAN receiver position corrected based upon the eLORAN correction factors.
A system for detecting and analyzing vibrations, comprising a first vibration analyzer (100A-C), a networked computing device and a second vibration analyzer, said vibration analyzers each comprising: a) an interface port, configured to interface various connectors to network the vibration analyzer (100A-C) to the networked computing device; b) a three-axis accelerometer configured to detect a vibration of a vehicle component; c) a controller configured to control a function of the vibration analyzer (100A-C), the controller being configured to communicate with the interface port and the three-axis accelerometer; and d) a housing that houses the interface port, the three-axis accelerometer and the controller; e) wherein the controller receives vehicle data through the interface port from an electronic control unit of a vehicle and vibration data from the three-axis accelerometer and the controller analyzes the vibration data and the vehicle data to determine a source of the vibration of the vehicle component; the system being characterized in that: f) the housing is formable to a shape similar to a portion of the vehicle component; and g) the first vibration analyzer (100A-C) is configured to perform a test by sending a first vibration signal to the networked computing device, which receives a second vibration signal from the second vibration analyzer (100A-C) positioned on the same vehicle component to determine if the first and the second vibration signals are different. a) an interface port, configured to interface various connectors to network the vibration analyzer (100A-C) to the networked computing device; b) a three-axis accelerometer configured to detect a vibration of a vehicle component; c) a controller configured to control a function of the vibration analyzer (100A-C), the controller being configured to communicate with the interface port and the three-axis accelerometer; and d) a housing that houses the interface port, the three-axis accelerometer and the controller; e) wherein the controller receives vehicle data through the interface port from an electronic control unit of a vehicle and vibration data from the three-axis accelerometer and the controller analyzes the vibration data and the vehicle data to determine a source of the vibration of the vehicle component; f) the housing is formable to a shape similar to a portion of the vehicle component; and g) the first vibration analyzer (100A-C) is configured to perform a test by sending a first vibration signal to the networked computing device, which receives a second vibration signal from the second vibration analyzer (100A-C) positioned on the same vehicle component to determine if the first and the second vibration signals are different.
A substrate conveying device comprising: a belt conveyor that is configured to support a circuit substrate using a conveyor belt from a lower side and to convey the circuit substrate in a conveyance direction; an upstream side substrate sensor and a downstream side substrate sensor that are respectively provided at two separated places of the belt conveyor in the conveyance direction, and are configured to output different signals depending on whether the circuit substrate is detected or is not detected; a first operation control unit that is configured to operate the belt conveyor by a set operation amount and to stop the belt conveyor, after a moment in which the upstream side substrate sensor detects an upstream side end or a downstream side end of the circuit substrate in the conveyance direction; a second operation control unit that is configured to stop the operation of the belt conveyor according to detection of the downstream side end of the circuit substrate performed by the downstream side substrate sensor; and an operation control selection unit that is capable of selecting the first operation control unit or the second operation control unit. a belt conveyor that is configured to support a circuit substrate using a conveyor belt from a lower side and to convey the circuit substrate in a conveyance direction; an upstream side substrate sensor and a downstream side substrate sensor that are respectively provided at two separated places of the belt conveyor in the conveyance direction, and are configured to output different signals depending on whether the circuit substrate is detected or is not detected; a first operation control unit that is configured to operate the belt conveyor by a set operation amount and to stop the belt conveyor, after a moment in which the upstream side substrate sensor detects an upstream side end or a downstream side end of the circuit substrate in the conveyance direction; a second operation control unit that is configured to stop the operation of the belt conveyor according to detection of the downstream side end of the circuit substrate performed by the downstream side substrate sensor; and an operation control selection unit that is capable of selecting the first operation control unit or the second operation control unit.
A variable magnification optical system comprising: a first lens group disposed at a most object side, a first focusing lens group (Ga) disposed at an image side of the first lens group, a second focusing lens group (Gb) disposed at an image side of the first focusing lens group (Ga), and a rear lens group (Gr) disposed at an image side of the second focusing lens group (Gb); upon varying magnification, the first lens group being moved, and an interval between said first lens group and said first focusing lens group (Ga), an interval between said first focusing lens group (Ga) and said second focusing lens group (Gb), and an interval between said second focusing lens group (Gb) and said rear lens group (Gr) being varied; upon focusing, said first focusing lens group (Ga) and said second focusing lens group (Gb) being moved along the optical axis with different trajectories from each other; and the following conditional expression being satisfied: 0.30 < fa / fb < 0.90 where fa denotes a focal length of said first focusing lens group (Ga), and fb denotes a focal length of said second focusing lens group (Gb), characterized by further comprising at least one intermediate lens group (Gm) having negative refractive power between said first lens group and said first focusing lens group (Ga), and upon varying magnification, an interval between the first lens group and the intermediate lens group (Gm) and an interval between the intermediate lens group (Gm) and the first focusing lens group (Ga) being varied. a first lens group disposed at a most object side, a first focusing lens group (Ga) disposed at an image side of the first lens group, a second focusing lens group (Gb) disposed at an image side of the first focusing lens group (Ga), and a rear lens group (Gr) disposed at an image side of the second focusing lens group (Gb); upon varying magnification, the first lens group being moved, and an interval between said first lens group and said first focusing lens group (Ga), an interval between said first focusing lens group (Ga) and said second focusing lens group (Gb), and an interval between said second focusing lens group (Gb) and said rear lens group (Gr) being varied; upon focusing, said first focusing lens group (Ga) and said second focusing lens group (Gb) being moved along the optical axis with different trajectories from each other; and the following conditional expression being satisfied: where fa denotes a focal length of said first focusing lens group (Ga), and fb denotes a focal length of said second focusing lens group (Gb), characterized by further comprising at least one intermediate lens group (Gm) having negative refractive power between said first lens group and said first focusing lens group (Ga), and upon varying magnification, an interval between the first lens group and the intermediate lens group (Gm) and an interval between the intermediate lens group (Gm) and the first focusing lens group (Ga) being varied.
A retortable plastic container (110, 410, 510, 1510, 2010) configured to be sealed by a rigid lid, the retortable plastic container comprising: a side wall (120, 420, 520, 1520) defining an open end (125, 525, 1525) of the container; and a base (130, 430, 530, 1530) opposite the open end and having a flexible portion (132,432, 532, 1632, 2132) defining a bottom panel of the container including a central region (134, 534, 1634) having an as formed convex shape extending away from the open end of the container and a peripheral region (136, 536, 1636) having an as formed concave shape connecting the central region and the side wall, and a skirt portion (140, 440, 540, 1540) extending away from the open end of the container, characterized in that the side wall (120, 420, 520, 1520) has a first thickness and the flexible portion of the base (130, 430, 530, 1530) has a second thickness smaller than the first thickness, the flexible portion (132,432, 532, 1632, 2132) having a thickness that is constant across the central region (134, 534, 1634) and the peripheral region (136, 536, 1636) and an angle α between the peripheral region (136, 536, 1636) of the flexible portion (132, 432, 532, 1632, 2132) and the skirt portion (140, 440, 540, 1540) is within a range of 80° and 100°. a side wall (120, 420, 520, 1520) defining an open end (125, 525, 1525) of the container; and a base (130, 430, 530, 1530) opposite the open end and having a flexible portion (132,432, 532, 1632, 2132) defining a bottom panel of the container including a central region (134, 534, 1634) having an as formed convex shape extending away from the open end of the container and a peripheral region (136, 536, 1636) having an as formed concave shape connecting the central region and the side wall, and a skirt portion (140, 440, 540, 1540) extending away from the open end of the container, characterized in that the side wall (120, 420, 520, 1520) has a first thickness and the flexible portion of the base (130, 430, 530, 1530) has a second thickness smaller than the first thickness, the flexible portion (132,432, 532, 1632, 2132) having a thickness that is constant across the central region (134, 534, 1634) and the peripheral region (136, 536, 1636) and an angle α between the peripheral region (136, 536, 1636) of the flexible portion (132, 432, 532, 1632, 2132) and the skirt portion (140, 440, 540, 1540) is within a range of 80° and 100°.
A tire testing machine comprising: a bottom frame; a pair of vertical frames (30a, 30b) that is supported by the bottom frame and extends upward in the vertical direction from the bottom frame; a movable beam that is laid across the pair of vertical frames (30a, 30b); a first chuck that includes a first spindle rotatable about an axis following the vertical direction; a second chuck that is mounted to the movable beam, is engageable with the first chuck, and includes a second spindle rotatable about an axis following the vertical direction along with the first spindle; a pair of screw shafts (31a, 31b) that are mounted to the vertical frames (30a, 30b) and are each adapted to be rotated by driving units (32a, 32b) so as to cause to movable beam to ascend or descend; a pair of beam fixing members (33a, 33b) are adapted to fixe the movable beam when a gas is supplied to an inner space of a tire clamped between the first chuck and the second chuck, characterized in that each beam fixing member (33a, 33b) includes a disk (34a, 34b) that is fixed to the screw shaft (31a, 31b) and is provided with a plurality of holes and a disk fixing member (35a, 35b) that is fixed to a stationary object and includes pins (36a, 36b) adapted to be inserted into the holes, and wherein when the pins (36a, 36b) are inserted into the holes formed in the disk (34a, 34b), the second chuck is fixed to the first chuck through the movable beam. a bottom frame; a pair of vertical frames (30a, 30b) that is supported by the bottom frame and extends upward in the vertical direction from the bottom frame; a movable beam that is laid across the pair of vertical frames (30a, 30b); a first chuck that includes a first spindle rotatable about an axis following the vertical direction; a second chuck that is mounted to the movable beam, is engageable with the first chuck, and includes a second spindle rotatable about an axis following the vertical direction along with the first spindle; a pair of screw shafts (31a, 31b) that are mounted to the vertical frames (30a, 30b) and are each adapted to be rotated by driving units (32a, 32b) so as to cause to movable beam to ascend or descend; a pair of beam fixing members (33a, 33b) are adapted to fixe the movable beam when a gas is supplied to an inner space of a tire clamped between the first chuck and the second chuck, characterized in that each beam fixing member (33a, 33b) includes a disk (34a, 34b) that is fixed to the screw shaft (31a, 31b) and is provided with a plurality of holes and a disk fixing member (35a, 35b) that is fixed to a stationary object and includes pins (36a, 36b) adapted to be inserted into the holes, and wherein when the pins (36a, 36b) are inserted into the holes formed in the disk (34a, 34b), the second chuck is fixed to the first chuck through the movable beam.
An armrest box structure, comprising an armrest and an armrest box, the armrest is arranged on the armrest box, the armrest can slide backward relative to the armrest box, an armrest storage box being mounted at the backend of the upper surface of the armrest, and an armrest cover, which can be open and closed, being set on the armrest storage box, when the armrest cover is open, an article area is formed on the armrest by the armrest storage box and the armrest cover for containing articles therein, characterized in that an armrest box cover is mounted on the armrest box, and the armrest is arranged on the armrest box cover, and a guide rail is sandwiched between the bottom surface of the armrest and the upper surface of the armrest box cover, the armrest and the armrest box are connected with each other in a sliding mode through the guide rail, an armrest box storage tank is mounted in the armrest box, the armrest box cover is arranged over the armrest box storage tank, and the backend of the armrest box cover is hinged with the armrest box.