mhurhangee/ep-ind-claims huggingface dataset:
An internal combustion engine comprising: a piston including a cavity configured to cause the internal combustion engine perform compression self-ignition combustion; and a fuel injection valve configured to inject fuel toward a side wall of the cavity, wherein the fuel injection valve includes a first injection hole for injecting fuel, a second injection hole for injecting fuel, a first needle configured to open and close the first injection hole, and a second needle configured to open and close the second injection hole, wherein the first injection hole and the second injection hole are configured such that a portion of a fuel spray injected from the first injection hole and a portion of a fuel spray injected from the second injection hole overlap each other at a position apart at a predetermined distance from the side wall of the cavity, and wherein the second needle is configured to start operation in order to open the second injection hole after a predetermined time has elapsed from a point of time when the first needle starts operation in order to open the first injection hole, characterized in that the first injection hole and the second injection hole are configured such that a ratio of an amount of fuel that faces a top part side of the piston and an amount of fuel that faces a bottom part side of the piston becomes a predetermined ratio after the fuel sprays hit the side wall of the cavity. a piston including a cavity configured to cause the internal combustion engine perform compression self-ignition combustion; and a fuel injection valve configured to inject fuel toward a side wall of the cavity, wherein the fuel injection valve includes a first injection hole for injecting fuel, a second injection hole for injecting fuel, a first needle configured to open and close the first injection hole, and a second needle configured to open and close the second injection hole, wherein the first injection hole and the second injection hole are configured such that a portion of a fuel spray injected from the first injection hole and a portion of a fuel spray injected from the second injection hole overlap each other at a position apart at a predetermined distance from the side wall of the cavity, and wherein the second needle is configured to start operation in order to open the second injection hole after a predetermined time has elapsed from a point of time when the first needle starts operation in order to open the first injection hole, characterized in that the first injection hole and the second injection hole are configured such that a ratio of an amount of fuel that faces a top part side of the piston and an amount of fuel that faces a bottom part side of the piston becomes a predetermined ratio after the fuel sprays hit the side wall of the cavity.
An injection molding machine, comprising: an ejector unit configured to eject a molding product from a mold (32, 33); [[and]] a mold release force sensor configured to detect a force to release the molding product from the mold (32, 33); and a monitoring part configured to monitor a result of detection by the mold release force sensor, wherein the ejector unit includes a support provided on a platen (12, 13) to which the mold (32, 33) is attached; a slidable base configured to slide relative to the support; an ejection member configured to move together with the slidable base; and an adjustment mechanism configured to adjust a position of the ejection member relative to the slidable base, and wherein the monitoring part is configured to control the adjustment mechanism based on a result of monitoring the result of the detection by the mold release force sensor. an ejector unit configured to eject a molding product from a mold (32, 33); [[and]] a mold release force sensor configured to detect a force to release the molding product from the mold (32, 33); and a monitoring part configured to monitor a result of detection by the mold release force sensor, wherein the ejector unit includes a support provided on a platen (12, 13) to which the mold (32, 33) is attached; a slidable base configured to slide relative to the support; an ejection member configured to move together with the slidable base; and an adjustment mechanism configured to adjust a position of the ejection member relative to the slidable base, and wherein the monitoring part is configured to control the adjustment mechanism based on a result of monitoring the result of the detection by the a support provided on a platen (12, 13) to which the mold (32, 33) is attached; a slidable base configured to slide relative to the support; an ejection member configured to move together with the slidable base; and an adjustment mechanism configured to adjust a position of the ejection member relative to the slidable base, and wherein the monitoring part is configured to control the adjustment mechanism based on a result of monitoring the result of the detection by the mold release force sensor.
A motor vehicle with at least one induction coil for inductively charging an energy accumulator, wherein the induction coil is attached to an underbody protection element of an underbody of the motor vehicle which is provided for protecting at least one component of the motor vehicle, wherein the underbody protection element at least partially delimits a receiving region in which the induction coil is at least partially accommodated, and wherein the induction coil is covered downwards at least partially by at least one covering element, characterised in that runners extending in the longitudinal direction of the vehicle and projecting downwards are arranged on the underbody along the sides (16, 18) of the underbody protection element which are located opposite in the transverse direction of the vehicle.
A displacement controlling device (15, 25, 35, 55), comprising: a shaft (15a, 25a, 35a, 55a) having a displacement region; a movable unit (15b, 25b, 35b, 55b) connected to the shaft (15a, 25a, 35a, 55a) and configured to move within the displacement region; a damper (15c, 25c, 35c, 55c) connected to one end of the shaft (15a, 25a, 35a, 55a); and a restraint unit (15d, 25d, 35d, 55d) arranged between the movable unit (15b, 25b, 35b, 55b) and the damper (15c, 25c, 35c, 55c), wherein the restraint unit (15d, 25d, 35d, 55d) is configured to be driven by the movable unit (15b, 25b, 35b, 55b) from a first position toward a second position; wherein the damper (15c, 25c, 35c, 55c) outputs a resistance when the restraint unit (15d, 25d, 35d, 55d) is at the first position; and wherein the damper (15c, 25c, 35c, 55c) stops outputting the resistance if the restraint unit (15d, 25d, 35d, 55d) is at the second position; the displacement controlling device (15, 25, 35, 55) is characterized in that: the movable unit (15b, 25b, 35b, 55b) is adapted to be moved toward or away from the damper (15c, 25c, 35c, 55c) within the displacement region; while the movable unit (15b, 25b, 35b, 55b) is being moved toward the damper (15c, 25c, 35c, 55c), the restraint unit (15d, 25d, 35d, 55d) is being moved from the first position to the second position. a shaft (15a, 25a, 35a, 55a) having a displacement region; a movable unit (15b, 25b, 35b, 55b) connected to the shaft (15a, 25a, 35a, 55a) and configured to move within the displacement region; a damper (15c, 25c, 35c, 55c) connected to one end of the shaft (15a, 25a, 35a, 55a); and a restraint unit (15d, 25d, 35d, 55d) arranged between the movable unit (15b, 25b, 35b, 55b) and the damper (15c, 25c, 35c, 55c), wherein the restraint unit (15d, 25d, 35d, 55d) is configured to be driven by the movable unit (15b, 25b, 35b, 55b) from a first position toward a second position; wherein the damper (15c, 25c, 35c, 55c) outputs a resistance when the restraint unit (15d, 25d, 35d, 55d) is at the first position; and wherein the damper (15c, 25c, 35c, 55c) stops outputting the resistance if the restraint unit (15d, 25d, 35d, 55d) is at the second position; the displacement controlling device (15, 25, 35, 55) is characterized in that: the movable unit (15b, 25b, 35b, 55b) is adapted to be moved toward or away from the damper (15c, 25c, 35c, 55c) within the displacement region; while the movable unit (15b, 25b, 35b, 55b) is being moved toward the damper (15c, 25c, 35c, 55c), the restraint unit (15d, 25d, 35d, 55d) is being moved from the first position to the second position.
An optical system (10; 20), comprising an optical device (1; 11) comprising a Pockels cell, in particular a CdTe Pockels cell; and a housing (2; 12) comprising at least one inlet port (2A; 12A) and at least one outlet port (2B; 12B), both inlet and outlet ports (2A, 2B; 12A, 12B) being formed in a wall of the housing (2; 12); wherein the optical device (1; 11) is mounted within the housing (2; 12), so that a fluid connection is provided between the at least one inlet port (2A; 12A) and the at least one outlet port (2B; 12B) to allow a cooling medium to flow along at least a portion of a side face of the optical device (1; 11) on the way from the inlet port (2A; 12A) to the outlet port (2B; 12B), wherein the housing comprises an inner portion (12.1) and an outer portion (12.2) wherein the outer portion (12.2) comprises the form of a tube comprising a ring-like cross-section, wherein the inner portion (12.1) comprises one or more holding members (12.11) configured to hold the optical device, characterized in that the one or more holding members (12.11) each comprise an inner manifold structure which is in fluid connection with the inlet and outlet ports (12A, 12B). an optical device (1; 11) comprising a Pockels cell, in particular a CdTe Pockels cell; and a housing (2; 12) comprising at least one inlet port (2A; 12A) and at least one outlet port (2B; 12B), both inlet and outlet ports (2A, 2B; 12A, 12B) being formed in a wall of the housing (2; 12); wherein the optical device (1; 11) is mounted within the housing (2; 12), so that a fluid connection is provided between the at least one inlet port (2A; 12A) and the at least one outlet port (2B; 12B) to allow a cooling medium to flow along at least a portion of a side face of the optical device (1; 11) on the way from the inlet port (2A; 12A) to the outlet port (2B; 12B), wherein the housing comprises an inner portion (12.1) and an outer portion (12.2) wherein the outer portion (12.2) comprises the form of a tube comprising a ring-like cross-section, wherein the inner portion (12.1) comprises one or more holding members (12.11) configured to hold the optical device, characterized in that the one or more holding members (12.11) each comprise an inner manifold structure which is in fluid connection with the inlet and outlet ports (12A, 12B).
A three-dimensional metallic character comprising: strokes, wherein each stroke of the three-dimensional metallic character is made up by two ridge surfaces (1, 2) which are intersecting to present a shape of mountain ridge; the ridge portion of the mountain ridge constitutes the font pattern; a bottom of the ridge surface (1, 2) forming the mountain ridge is longitudinally welded to a side surface; the three-dimensional metallic character further comprises a bottom plate; the shape of the bottom plate matches with the shape of strokes of the three-dimensional metallic character; the bottom plate is fixedly connected to the side surface to form a bottom cavity; wherein the ridge surface (1, 2) and the side surface are made of metallic materials, characterised in that a light-emitting element is disposed within the bottom cavity, wherein the ridge surface (1, 2) forming the mountain ridge has holes thereon, wherein the side surface is provided with holes, and wherein the locations where the holes are provided is lined with light-transparent material.
A surgical assistant system comprising: an operation unit (11A, 11B) configured to give an input, the operation unit (11A, 11B) being disposed outside of a patient; an arm unit (21A, 21B, 21C, 21D) on which a treatment tool is mounted; an operation imaging unit (40, 112) configured to acquire an operation image; an endoscope configured to acquire an internal-body image including an image of the interior of the body of the patient; a mode control unit having a plurality of operation modes and configured to enable one of the plurality of operation modes to be set as a setting operation mode; a driving unit configured to enable the arm unit (21A, 21B, 21C, 21D) to be operated based on the input given by the operation unit (11A, 11B) and the setting operation mode; a synthetic image creation unit configured to synthesize images to create a synthetic image based on the setting operation mode; and a display unit configured to display the synthetic image, characterized in that the operation image is an image including the operation unit (11A, 11B) that is disposed outside of the patient and the hands of a surgeon that grasps the operation unit (11A, 11B); and the synthetic image creation unit is configured to synthesize the images using at least the operation image to create the synthetic image based on the setting operation mode. an operation unit (11A, 11B) configured to give an input, the operation unit (11A, 11B) being disposed outside of a patient; an arm unit (21A, 21B, 21C, 21D) on which a treatment tool is mounted; an operation imaging unit (40, 112) configured to acquire an operation image; an endoscope configured to acquire an internal-body image including an image of the interior of the body of the patient; a mode control unit having a plurality of operation modes and configured to enable one of the plurality of operation modes to be set as a setting operation mode; a driving unit configured to enable the arm unit (21A, 21B, 21C, 21D) to be operated based on the input given by the operation unit (11A, 11B) and the setting operation mode; a synthetic image creation unit configured to synthesize images to create a synthetic image based on the setting operation mode; and a display unit configured to display the synthetic image, characterized in that the operation image is an image including the operation unit (11A, 11B) that is disposed outside of the patient and the hands of a surgeon that grasps the operation unit (11A, 11B); and the synthetic image creation unit is configured to synthesize the images using at least the operation image to create the synthetic image based on the setting operation mode.
A method for monitoring and controlling a pump, comprising: defining at least one processing target; deriving a first actuator control signal Yc from the at least one processing target; deriving at least one actual operating parameter; comparing the at least one actual operating parameter to at least one predefined system and pump limit to determine a second actuator control signal Y'c; comparing the at least one actual operating parameter to at least one predefined fluid limit to determine a third actuator control signal Y"c; comparing the at least one actual operating parameter to at least one predefined normal processing limit to determine a fourth actuator control signal Y'''c; comparing the at least one actual operating parameter to at least one predefined abnormal processing limit to determine a fifth actuator control signal Y""c; determining which of the second actuator control signal Y'c, third actuator control signal Y"c, fourth actuator control signal Y'''c, and fifth actuator control Y""c signals is a most conservative actuator control signal; and driving the pump in accordance with the most conservative actuator control signal. defining at least one processing target; deriving a first actuator control signal Yc from the at least one processing target; deriving at least one actual operating parameter; comparing the at least one actual operating parameter to at least one predefined system and pump limit to determine a second actuator control signal Y'c; comparing the at least one actual operating parameter to at least one predefined fluid limit to determine a third actuator control signal Y"c; comparing the at least one actual operating parameter to at least one predefined normal processing limit to determine a fourth actuator control signal Y'''c; comparing the at least one actual operating parameter to at least one predefined abnormal processing limit to determine a fifth actuator control signal Y""c; determining which of the second actuator control signal Y'c, third actuator control signal Y"c, fourth actuator control signal Y'''c, and fifth actuator control Y""c signals is a most conservative actuator control signal; and driving the pump in accordance with the most conservative actuator control signal.
A control unit for a pump, the control unit comprising: a control button adapted to operate the pump based on a user action; and a plurality of light emitting units (L1, L2, L3) configured with the control unit, wherein the plurality of light emitting units (L1, L2, L3) indicate one or more operating parameters of the pump, wherein the control button is configured to switch between a plurality of modes of control of the pump based on different user actions, wherein the plurality of light emitting units (L1, L2, L3) indicate switching between the plurality of modes by a change in color corresponding to the plurality of modes, wherein the plurality of modes include a first mode wherein the light emitting units indicate a first operating parameter, a second mode wherein the light emitting units indicate a second operating parameter, and a battery mode wherein the light emitting units indicate a battery status, and wherein the plurality of light emitting units (L1, L2, L3) are configured to selectively, e.g. periodically, indicate the battery status of the battery mode both during the first mode and the second mode. a control button adapted to operate the pump based on a user action; and a plurality of light emitting units (L1, L2, L3) configured with the control unit, wherein the plurality of light emitting units (L1, L2, L3) indicate one or more operating parameters of the pump, wherein the control button is configured to switch between a plurality of modes of control of the pump based on different user actions, wherein the plurality of light emitting units (L1, L2, L3) indicate switching between the plurality of modes by a change in color corresponding to the plurality of modes, wherein the plurality of modes include a first mode wherein the light emitting units indicate a first operating parameter, a second mode wherein the light emitting units indicate a second operating parameter, and a battery mode wherein the light emitting units indicate a battery status, and wherein the plurality of light emitting units (L1, L2, L3) are configured to selectively, e.g. periodically, indicate the battery status of the battery mode both during the first mode and the second mode.
A method for manufacturing a vehicle window component, comprising: providing a vehicle window substrate (100; 200) and an elastic body (110; 210); and adhering the elastic body (110; 210) to a surface of the vehicle window substrate, wherein the surface is close to a lateral side of the vehicle window substrate (100; 200); and implementing an injection molding process for forming an encapsulation (120; 220), the injection molding process is performed at an injecting molding temperature lower than a melting temperature of the elastic body (110; 210), wherein the minimum linear distance between the elastic body (110; 210) and the closest outer edge of the vehicle window substrate (100; 200) is larger than or equal to 4mm, and the encapsulation encompasses the elastic body (110; 210) and the vehicle window substrate (100; 200). providing a vehicle window substrate (100; 200) and an elastic body (110; 210); and adhering the elastic body (110; 210) to a surface of the vehicle window substrate, wherein the surface is close to a lateral side of the vehicle window substrate (100; 200); and implementing an injection molding process for forming an encapsulation (120; 220), the injection molding process is performed at an injecting molding temperature lower than a melting temperature of the elastic body (110; 210), wherein the minimum linear distance between the elastic body (110; 210) and the closest outer edge of the vehicle window substrate (100; 200) is larger than or equal to 4mm, and the encapsulation encompasses the elastic body (110; 210) and the vehicle window substrate (100; 200).
Large sized electronic equipment comprising: a display device disposed with a front surface of a housing (10, 60); a first touch sensor provided in said display device; a lateral recess (64a-64d) formed in at least one side surface (15, 16, 63) of said housing (10; 60); a rear surface disposed on said housing and opposite to said front surface; a rear recess formed in said rear surface and a rear touch sensor disposed in said housing (10; 60) in a range including said rear recess; a second touch sensor (27, 52, 65) disposed in said housing in a range including said lateral recess, characterized in that the rear recess of the rear surface is allocated with a program event different from the program event allocated to the lateral recess (64a-64d) in a form similar to a shift key of a keyboard so as to allocate other program events to the lateral recess (64a-64d) in a temporary manner, wherein the lateral recess (64a-64d) is disposed near to an upper surface in a left side surface of the housing, and the rear recess is formed near to a corner between the left side surface and the upper surface, such that a position of the rear recess is suitable for a touch of a right thumb of a right hand in the course of holding the electronic equipment. a display device disposed with a front surface of a housing (10, 60); a first touch sensor provided in said display device; a lateral recess (64a-64d) formed in at least one side surface (15, 16, 63) of said housing (10; 60); a rear surface disposed on said housing and opposite to said front surface; a rear recess formed in said rear surface and a rear touch sensor disposed in said housing (10; 60) in a range including said rear recess; a second touch sensor (27, 52, 65) disposed in said housing in a range including said lateral recess, characterized in that the rear recess of the rear surface is allocated with a program event different from the program event allocated to the lateral recess (64a-64d) in a form similar to a shift key of a keyboard so as to allocate other program events to the lateral recess (64a-64d) in a temporary manner, wherein the lateral recess (64a-64d) is disposed near to an upper surface in a left side surface of the housing, and the rear recess is formed near to a corner between the left side surface and the upper surface, such that a position of the rear recess is suitable for a touch of a right thumb of a right hand in the course of holding the electronic equipment.