mhurhangee/patent-ind-claim-en huggingface dataset:
A printing fluid delivery system, comprising: a plurality of interconnected printing fluid supply modules (102A-N) forming a printing fluid manifold configured to supply printing fluid from at least one cartridge to at least one printhead (1-N) along a print bar in a printer, wherein the plurality of interconnected printing fluid supply modules (102A-N) comprises: a printing fluid supply start module ; a printing fluid supply end module ; and at least one printing fluid supply intermediate module serially connected between the printing fluid supply start module and the printing fluid supply end module , wherein each of the at least one printing fluid supply intermediate module and the printing fluid supply end module is configured to provide a fluidic interface with the at least one printhead (1-N) along the print bar, characterized in that each of the printing fluid supply end module and the at least one printing fluid supply intermediate module comprises: a lockout configured to act as a key to prevent printheads with different configurations from making a fluid interconnection. a printing fluid supply start module ; a printing fluid supply end module ; and at least one printing fluid supply intermediate module serially connected between the printing fluid supply start module and the printing fluid supply end module , wherein each of the at least one printing fluid supply intermediate module and the printing fluid supply end module is configured to provide a fluidic interface with the at least one printhead (1-N) along the print bar, characterized in that
A computer-assisted medical device comprising: a mounting structure for one or more articulated arms (110, 310-340); one or more first joints proximal to the structure ; an articulated arm (110, 310-340) comprising one or more second joints distal to the structure and configured to couple a reference instrument to the structure ; and a control unit ; wherein the control unit is configured to: determine a pose of the reference instrument , the pose including a reference point and a reference orientation; position a predetermined point of the structure , using the first joints , over the reference point; orient the structure , using the first joints , to align a predetermined orientation vector of the structure with the reference orientation; and maintain the pose of the reference instrument using the second joints while orienting the structure . a mounting structure for one or more articulated arms (110, 310-340); one or more first joints proximal to the structure ; an articulated arm (110, 310-340) comprising one or more second joints distal to the structure and configured to couple a reference instrument to the structure ; and a control unit ; wherein the control unit is configured to: determine a pose of the reference instrument , the pose including a reference point and a reference orientation; position a predetermined point of the structure , using the first joints , over the reference point; orient the structure , using the first joints , to align a predetermined orientation vector of the structure with the reference orientation; and maintain the pose of the reference instrument using the second joints while orienting the structure . determine a pose of the reference instrument , the pose including a reference point and a reference orientation; position a predetermined point of the structure , using the first joints , over the reference point; orient the structure , using the first joints , to align a predetermined orientation vector of the structure with the reference orientation; and maintain the pose of the reference instrument using the second joints while orienting the structure .
Monitoring system for a hydraulic system in a comminution apparatus including at least one pressurized accumulator, wherein the pressurized accumulator comprises a first chamber containing hydraulic liquid and a second chamber containing a pressurized gas, wherein said monitoring system comprises at least one pressure sensor and a control unit, wherein said pressure sensor is connected to said control unit, said pressure sensor being arranged to measure a pressure in said at least one accumulator and wherein the control unit is configured to determine that a pressure in said accumulator is outside of a predefined range and wherein the control unit is further configured to control a pressure regulating system arranged to restore the pressure in the pressurized accumulator, characterized in that the pressure sensor is arranged to measure a gas pressure in said second chamber.
A method for pre-lithiating a negative electrode, the method comprising: a first step of adding an inorganic powder to molten lithium to form a mixture, wherein the inorganic powder includes at least one of Al 2 O 3 , TiO 2 , ZrO 2 , SiO 2 , SnO 2 , CeO 2 , MgO, CaO, and Y 2 O 3 , and wherein a mixing ratio of the molten lithium and the inorganic powder is 70 to 85% by volume of the molten lithium and 15 to 30% by volume of the inorganic powder; a second step of extruding the mixture and cooling the mixture to prepare a lithium metal-inorganic composite ribbon having a thickness of 100 to 200 μ m; a third step of rolling the lithium metal-inorganic composite ribbon to produce a lithium metal-inorganic composite thin film; and a fourth step of depositing the lithium metal-inorganic composite thin film on a surface of the negative electrode to form a lithium metal-inorganic composite layer.
Coating apparatus for coating cylindrical hollow bodies , having a machine frame and a workpiece rotary table which is mounted on the machine frame so as to be rotatable about an axis of rotation and which is equipped with a plurality of holding mandrels which are each rotatably mounted on the workpiece rotary table and which are designed to receive cylindrical hollow bodies , and with a coating station arranged on the machine frame, characterized in that the coating station comprises a coating roller which is rotatably mounted so as to be rotatable on the coating station , wherein an axis of rotation of the holding mandrel and an axis of rotation of the coating roller are aligned parallel to one another, the coating roller having a coating region and a free-wheeling region on a circumferential surface , the coating region being a circular cylinder segment with a constant circular radius and is coaxial with the rotational axis of the coating roller and wherein the free-wheeling region is formed, in particular exclusively, from surface sections which each have a distance from the rotational axis of the coating roller which is smaller than the circular radius .
An adapter device comprising a first mount on one side and a second mount on another side, where the first mount is detachably mountable to a first imaging apparatus , and the second mount is detachably mountable to a first accessory , wherein the first mount has a first mount recess , a first mount claw , a second mount recess , a second mount claw , a third mount recess , and a third mount claw , disposed following a circumferential direction of the first mount , wherein the second mount has a fourth mount claw , a fourth mount recess , a fifth mount claw , a fifth mount recess , a sixth mount claw , and a sixth mount recess , disposed following the circumferential direction of the second mount , wherein the first, second, and third mount claws (1301d, 1301e, and 1301f) are insertable into corresponding mount recesses provided on the first imaging apparatus , to detachably mount the first mount on the first imaging apparatus , wherein the fourth, fifth, and sixth mount claws (1401a, 1401b, and 1401c) are insertable into mount recesses provided to the first accessory , to detachably mount the second mount on the first accessory , and wherein each of the mount claws and mount recesses extends radially over an angle range in the circumferential direction of the mounts , where a smallest angle range out of angle ranges of the first, second, and third mount recesses is equal to or smaller than a smallest angle range out of angle ranges of the fourth, fifth, and sixth mount claws .
Process for producing methane, wherein a first mass flow G1, which is a hydrogen-containing gas mixture, is mixed with a second mass flow G2, which contains carbon dioxide and/or carbon monoxide, and hydrogen and carbon dioxide and/or carbon monoxide in the obtained mixture are converted into methane in a catalytic reaction, wherein the second mass flow G2 is obtained by a) performing a catalytic hydromethanation in which the inputs carbon, steam and oxygen are converted in the presence of at least one catalyst at a temperature in the range from 400°C 800°C into methane, carbon monoxide and carbon dioxide or b) performing a steam-hydrogen gasification in which the inputs carbon, hydrogen, steam and oxygen are converted at a temperature in the range from 800°C to 1100°C into methane, carbon monoxide and carbon dioxide wherein in the catalytic hydromethanation of alternative a) or in the steam-hydrogen gasification according to alternative b) hydrogen is added as an additional input to adjust the reaction equilibrium in favour of methane, wherein the hydrogen is separated from the first mass flow G1. a) performing a catalytic hydromethanation in which the inputs carbon, steam and oxygen are converted in the presence of at least one catalyst at a temperature in the range from 400°C 800°C into methane, carbon monoxide and carbon dioxide or b) performing a steam-hydrogen gasification in which the inputs carbon, hydrogen, steam and oxygen are converted at a temperature in the range from 800°C to 1100°C into methane, carbon monoxide and carbon dioxide
A refrigeration apparatus comprising: a refrigerant circuit in which a compressor , a radiator , an expansion valve , an evaporator , and a container are connected in order, and a refrigerant flows therein; a detection unit configured to detect a temperature or pressure of the refrigerant; and a control unit configured to control a number of revolutions of the compressor and an opening degree of the expansion valve, characterized in that on determination that the refrigerant and a lubricating oil are separated inside the container based on a detection result of the detection unit, the control unit is configured to execute first control (S3) to decrease the number of revolutions of the compressor, and to execute second control (S4) to set the opening degree of the expansion valve to a predetermined opening degree. a refrigerant circuit in which a compressor , a radiator , an expansion valve , an evaporator , and a container are connected in order, and a refrigerant flows therein; a detection unit configured to detect a temperature or pressure of the refrigerant; and a control unit configured to control a number of revolutions of the compressor and an opening degree of the expansion valve, characterized in that on determination that the refrigerant and a lubricating oil are separated inside the container based on a detection result of the detection unit, the control unit is configured to execute first control (S3) to decrease the number of revolutions of the compressor, and to execute second control (S4) to set the opening degree of the expansion valve to a predetermined opening degree.
A pneumatic drive system for actuating a control valve , particularly a regulating control valve or a safety valve, of a processing plant, comprising a pneumatic working chamber and a current/pressure transducer coupled with the working chamber for loading the working chamber with a pneumatic pressure, by means of which the control valve can be moved, wherein the current/pressure transducer has at least one electrical input (w) for receiving an electrical control signal, wherein the current/pressure transducer generates at least two pneumatic control signals (S 1 , S 2 , S 3 , S 4 ), with which the one working chamber is loaded, characterized in that the current/pressure transducer has at least two seperated pneumatic outputs (A1, A2, A3, A4) which are connected with a working chamber and on which at least two control signals are leaving said current/pressure transducer independently of one another.
A work vehicle comprising: a vehicle body to which front tires are mounted; a working implement movably coupled to the vehicle body and at least a part of which is arranged anterior to the front tires ; a camera that is arranged at a front portion of the vehicle body and shoots an image of an anterior area outside the vehicle body as a shooting area; and a display control unit that causes a display device to display a shot image shot by the camera characterized in that the display control unit causes the display device to display a first guide image that indicates a first projection position obtained by projecting a first site of the working implement on a plane including ground-contacting surfaces of the front tires in a superimposed manner. a vehicle body to which front tires are mounted; a working implement movably coupled to the vehicle body and at least a part of which is arranged anterior to the front tires ; a camera that is arranged at a front portion of the vehicle body and shoots an image of an anterior area outside the vehicle body as a shooting area; and a display control unit that causes a display device to display a shot image shot by the camera characterized in that the display control unit causes the display device to display a first guide image that indicates a first projection position obtained by projecting a first site of the working implement on a plane including ground-contacting surfaces of the front tires in a superimposed manner.
Electric wire connector for connecting at least two wires , the electric wire connector comprising: a connector housing with a housing base and at least one housing cover , the housing base being divided into at least two compartments ; and at least two contact terminals , each arranged in a different compartment , the at least two contact terminals being connected to one another by an electrically conductive member , wherein the at least one housing cover comprises at least one wire receiving opening for receiving one of the at least two wires in an insertion direction (S) and wherein the at least one housing cover is linearly movable relative to the housing base from an open position for receiving at least one of the wires to a closed position for terminating the inserted wire , characterized in that at least the at least one wire receiving opening is filled with a sealing material . a connector housing with a housing base and at least one housing cover , the housing base being divided into at least two compartments ; and at least two contact terminals , each arranged in a different compartment , the at least two contact terminals being connected to one another by an electrically conductive member , wherein the at least one housing cover comprises at least one wire receiving opening for receiving one of the at least two wires in an insertion direction (S) and wherein the at least one housing cover is linearly movable relative to the housing base from an open position for receiving at least one of the wires to a closed position for terminating the inserted wire , characterized in that at least the at least one wire receiving opening is filled with a sealing material .
A shaft assembly (1000; 2000) for use with a motorized surgical system, said shaft assembly comprising: a frame (1110; 2110) selectively mountable to the motorized surgical system; a shaft extending from said frame; an end effector (1300; 2300) coupled to said shaft; a firing member operably engageable with the motorized surgical system, wherein said firing member is movable toward said end effector during a firing stroke; and a retraction crank rotatably mounted to said frame, wherein said retraction crank is selectively engageable with said firing member, and wherein said retraction crank is selectively operable to retract said firing member away from said end effector; a retraction pawl pivotably mounted to said retraction crank, and wherein said retraction pawl is configured to engage said firing member when said retraction crank is rotated relative to said frame. a frame (1110; 2110) selectively mountable to the motorized surgical system; a shaft extending from said frame; an end effector (1300; 2300) coupled to said shaft; a firing member operably engageable with the motorized surgical system, wherein said firing member is movable toward said end effector during a firing stroke; and a retraction crank rotatably mounted to said frame, wherein said retraction crank is selectively engageable with said firing member, and wherein said retraction crank is selectively operable to retract said firing member away from said end effector; a retraction pawl pivotably mounted to said retraction crank, and wherein said retraction pawl is configured to engage said firing member when said retraction crank is rotated relative to said frame.
A clamping device comprising a carriage , a plurality of clamping members , a housing , and an urging arrangement , wherein the carriage is for holding the plurality of clamping members in the clamping device , the carriage comprising a central portion and a plurality of holding portions for holding the clamping members , each clamping member being held in a respective one of the holding portions , wherein the holding portions are foldable relative to the central portion between an open position of the holding portions and a closed position of the holding portions , wherein the carriage is housed in the housing when the holding portions are in the closed position, wherein the urging arrangement is for urging the carriage along the housing , characterized in that the urging arrangement comprises a spring member and a reaction member to apply a reaction force to the spring member .
A radiation imaging apparatus comprising: radiation imaging means for performing imaging of a radiation image in one frame by performing driving of a plurality of pixels to use signals stored in the plurality of pixels based on radiation irradiating the plurality of pixels arranged in a matrix; and imaging control means for controlling the imaging by controlling the driving based on a setting value, wherein the imaging control means causes the radiation imaging means to perform the imaging in a plurality of modes varying in the setting value, and wherein the imaging control means causes the radiation imaging means to perform standby driving of the plurality of pixels to reduce signals stored in the plurality of pixels during a period in which the plurality of pixels is not irradiated with radiation, the plurality of modes including a first mode in which the radiation imaging means performs first imaging using a first setting value and a second mode in which the radiation imaging means performs second imaging using a second setting value different from the first setting value after the first imaging, and the imaging control means causes the radiation imaging means to perform the standby driving using the setting value closer to the second setting value than to the first setting value in response to end of the first imaging in causing the radiation imaging means to perform the second imaging. radiation imaging means for performing imaging of a radiation image in one frame by performing driving of a plurality of pixels to use signals stored in the plurality of pixels based on radiation irradiating the plurality of pixels arranged in a matrix; and imaging control means for controlling the imaging by controlling the driving based on a setting value, wherein the imaging control means causes the radiation imaging means to perform the imaging in a plurality of modes varying in the setting value, and wherein the imaging control means causes the radiation imaging means to perform standby driving of the plurality of pixels to reduce signals stored in the plurality of pixels during a period in which the plurality of pixels is not irradiated with radiation, the plurality of modes including a first mode in which the radiation imaging means performs first imaging using a first setting value and a second mode in which the radiation imaging means performs second imaging using a second setting value different from the first setting value after the first imaging, and the imaging control means causes the radiation imaging means to perform the standby driving using the setting value closer to the second setting value than to the first setting value in response to end of the first imaging in causing the radiation imaging means to perform the second imaging.
A lighting device comprising: - at least two modules ; - at least two light-emitting elements , - wherein the light-emitting elements are connected with each other into a module of said at least two modules via a connection element , - wherein the connection element has at least one region, the at least one region being spaced apart from the at least two light-emitting elements , - wherein the at least two modules are connected with each other in parallel, characterized in that - the at least one region of the connection element has a specific electrical resistance, - wherein the electrical resistance of the at least one region of the connection element is configured to compensate differences between electrical characteristics of at least two light-emitting elements , wherein the electrical resistance of the at least one region of the connection element is chosen so as to compensate a difference between the forward voltage of a light-emitting diode of a first light-emitting element and the forward voltage of a light-emitting diode of a second light-emitting element . - at least two modules ; - at least two light-emitting elements , - wherein the light-emitting elements are connected with each other into a module of said at least two modules via a connection element , - wherein the connection element has at least one region, the at least one region being spaced apart from the at least two light-emitting elements , - wherein the at least two modules are connected with each other in parallel, - the at least one region of the connection element has a specific electrical resistance, - wherein the electrical resistance of the at least one region of the connection element is configured to compensate differences between electrical characteristics of at least two light-emitting elements , wherein the electrical resistance of the at least one region of the connection element is chosen so as to compensate a difference between the forward voltage of a light-emitting diode of a first light-emitting element and the forward voltage of a light-emitting diode of a second light-emitting element .