mhurhangee/patent-ind-claim-en huggingface dataset:
A robotic system for operations, such as measurement and manipulation tasks in confined spaces and environments, the robotic system , comprising a main drive unit having, a mounting structure , and an arm storage unit coupled to the mounting structure ; a non-actuated extendable arm unit coupled to the arm storage unit to be moved axially in a predefined direction in a lateral plane from the arm storage unit , the non-actuated extendable arm unit having an elongated structure flexible and thin in the lateral plane, and rigid and wide in a vertical plane; an axial drive unit coupled to the arm storage unit to axially extend and retract the non-actuated extendable arm unit from the arm storage unit ; an arm guidance member coupled to the arm storage unit to guide the non-actuated extendable arm unit in a predefined direction in the lateral plane during extension and retraction; characterised in that the robotic system comprises a head articulation unit coupled to a free end of the non-actuated extendable arm unit to actuate and move the non-actuated extendable arm unit in varying directions in the confined spaces and environments.
A cleaner comprising: a suction unit that guides dust and air; a main body that includes a suction motor generating suction force to suck air through the suction unit and a dust separation unit for separating dust from air guided through the suction unit ; a main body terminal that is mounted on the main body ; and a handle terminal mounted on the handle unit , characterized in that at least a portion of the suction motor is disposed over the dust separation unit, the dust separation unit includes a cyclone unit that separates dust using cyclonic flow, and an axis of the cyclonic flow extends in a vertical direction, the handle unit is slide-coupled to the main body , and the handle terminal is connected to the main body terminal in the vertical direction when the handle unit is slide-coupled to the main body . a suction unit that guides dust and air; a main body that includes a suction motor generating suction force to suck air through the suction unit and a dust separation unit for separating dust from air guided through the suction unit ; a main body terminal that is mounted on the main body ; and a handle terminal mounted on the handle unit , characterized in that at least a portion of the suction motor is disposed over the dust separation unit, the dust separation unit includes a cyclone unit that separates dust using cyclonic flow, and an axis of the cyclonic flow extends in a vertical direction, the handle unit is slide-coupled to the main body , and the handle terminal is connected to the main body terminal in the vertical direction when the handle unit is slide-coupled to the main body .
A method of manufacturing a chip assembly comprising: joining an in-process unit to a printed circuit board , the in-process unit comprising: a substrate having an active surface, a passive surface, and contacts exposed at the active surface; an interposer electrically connected to the substrate; a plurality of semiconductor chips overlying the substrate and electrically connected to the substrate through the interposer, and a stiffener overlying the substrate and having an aperture extending therethrough, the plurality of semiconductor chips being positioned within the aperture; reflowing a bonding material disposed between and electrically connecting the in-process unit with the printed circuit board, the bonding material having a first reflow temperature; and then joining a heat distribution device to the plurality of semiconductor chips using a thermal interface material ("TIM") having a second reflow temperature that is lower than the first reflow temperature. joining an in-process unit to a printed circuit board , the in-process unit comprising: a substrate having an active surface, a passive surface, and contacts exposed at the active surface; an interposer electrically connected to the substrate; a plurality of semiconductor chips overlying the substrate and electrically connected to the substrate through the interposer, and a stiffener overlying the substrate and having an aperture extending therethrough, the plurality of semiconductor chips being positioned within the aperture; a substrate having an active surface, a passive surface, and contacts exposed at the active surface; an interposer electrically connected to the substrate; a plurality of semiconductor chips overlying the substrate and electrically connected to the substrate through the interposer, and a stiffener overlying the substrate and having an aperture extending therethrough, the plurality of semiconductor chips being positioned within the aperture; reflowing a bonding material disposed between and electrically connecting the in-process unit with the printed circuit board, the bonding material having a first reflow temperature; and then joining a heat distribution device to the plurality of semiconductor chips using a thermal interface material ("TIM") having a second reflow temperature that is lower than the first reflow temperature.
A bending machine for bending a sheet metal, comprising an upper roller , a further roller , and at least one side roller , wherein the side roller is held in a rocker arm , wherein the first end of the rocker arm is fixed to a movable supporting member , characterized in that the second end of the rocker arm can be rotatably fixed, in relation to the upper roller and the further roller, in a first position with a bolt in a first bore in a housing part of the bending machine, wherein the second end of the rocker arm can be rotatably fixed, in relation to the upper roller and the further roller , in a further position with the bolt in a further bore in the housing part of the bending machine.
Use of a catalyst in a method for the production of light olefins in a catalytic cracking unit with energy deficiency wherein said catalyst comprises a solid acid which is a zeolite from the pentasil family selected from the group ZSM-5, ZSM-8 and ZSM-11, and between 1.0 and 15%, based on the weight of the catalyst, of a hydrogenation metal, said hydrogenation metal comprising a metal or combination of metals with dehydrogenation power selected from Ni, Fe, Mn, Co, Mo and/or Ga and is used to maximise the yield of propylene and ethylene, and to minimise the energy deficiency in the catalytic cracking of light hydrocarbons with boiling points above 150 °C, and wherein said method comprises 1) supplying a stream of light hydrocarbons to a reactor of a fluid catalytic cracking unit, wherein the stream of light hydrocarbons comprises a stream of naphtha, diesel or kerosene or other effluent from the distillation of petroleum or from delayed coking units, hydrocracking units, hydro fining units or other refining units; 2) promoting contact between the stream of hydrocarbons and the heated catalyst; 3) allowing vapour-phase reactions to occur at a reaction temperature of from 550 to 750 °C and catalyst to oil feed ratio between 10 and 50 to obtain a mixture of hydrocarbons, steam and coked catalyst; 4) separating the coked catalyst from products resulting from the reactions; 5) directing the coked catalyst to a steam rectification section; 6) directing rectified coked catalyst to a heating section, to allow combustion of coke deposited on the catalyst and the burning of torch oil, with a stream of air, and to obtain a heated catalyst capable of supplying the process with energy; 7) returning the heated catalyst to the feed of the reactor to begin the cracking process again; 8) directing the hydrocarbon stream generated to a separating and fractionating section, for separating the products obtained. 1) supplying a stream of light hydrocarbons to a reactor of a fluid catalytic cracking unit, wherein the stream of light hydrocarbons comprises a stream of naphtha, diesel or kerosene or other effluent from the distillation of petroleum or from delayed coking units, hydrocracking units, hydro fining units or other refining units; 2) promoting contact between the stream of hydrocarbons and the heated catalyst; 3) allowing vapour-phase reactions to occur at a reaction temperature of from 550 to 750 °C and catalyst to oil feed ratio between 10 and 50 to obtain a mixture of hydrocarbons, steam and coked catalyst; 4) separating the coked catalyst from products resulting from the reactions; 5) directing the coked catalyst to a steam rectification section; 6) directing rectified coked catalyst to a heating section, to allow combustion of coke deposited on the catalyst and the burning of torch oil, with a stream of air, and to obtain a heated catalyst capable of supplying the process with energy; 7) returning the heated catalyst to the feed of the reactor to begin the cracking process again; 8) directing the hydrocarbon stream generated to a separating and fractionating section, for separating the products obtained.
An air filter cartridge comprising: (a) a coiled z-filter media pack comprising fluted media secured to a facing media; (b) a preform comprising a shell , a core , a receiver , and a grid , wherein the shell , the core , the receiver , and the grid are integral with one another, and wherein the preform has a portion circumscribing the media pack and including a housing seal support ; (c) a housing seal arrangement including a housing seal portion secured to the housing seal support ; and a media pack sealing portion circumscribing the media pack and sealing the preform to the media pack; (d) the z-filter media pack including a plurality of flutes ; each of the plurality of flutes having an upstream portion adjacent to an inlet flow face and a downstream portion adjacent to an outlet flow face ; selected ones of the flutes being open at the upstream portion and closed at the downstream portion; and, selected ones of the flutes being closed at the upstream portion and open at the downstream portion; (e) the grid being positioned to support the outlet flow face of the media pack , and includes a center cross piece defining a central, elongate, hollow receiver therein, forming receiver ; and outside surfaces of receiver comprising the core projecting into the coiled media pack ; (f) the z-filter media pack has a cross section having opposite parallel sides extending between two, opposite, curved ends; and (g) the preform has opposite ends and an impermeable side wall extending therebetween. (a) a coiled z-filter media pack comprising fluted media secured to a facing media; (b) a preform comprising a shell , a core , a receiver , and a grid , wherein the shell , the core , the receiver , and the grid are integral with one another, and wherein the preform has a portion circumscribing the media pack and including a housing seal support ; (c) a housing seal arrangement including a housing seal portion secured to the housing seal support ; and a media pack sealing portion circumscribing the media pack and sealing the preform to the media pack; (d) the z-filter media pack including a plurality of flutes ; each of the plurality of flutes having an upstream portion adjacent to an inlet flow face and a downstream portion adjacent to an outlet flow face ; selected ones of the flutes being open at the upstream portion and closed at the downstream portion; and, selected ones of the flutes being closed at the upstream portion and open at the downstream portion; (e) the grid being positioned to support the outlet flow face of the media pack , and includes a center cross piece defining a central, elongate, hollow receiver therein, forming receiver ; and outside surfaces of receiver comprising the core projecting into the coiled media pack ; (f) the z-filter media pack has a cross section having opposite parallel sides extending between two, opposite, curved ends; and (g) the preform has opposite ends and an impermeable side wall extending therebetween.
A battery module , comprising: - a first electrochemical cell having a first terminal ; - a second electrochemical cell having a second terminal ; and - a bus bar connection electrically connecting the first and second electrochemical cells , comprising: - a first adapter covering at least a portion of the first terminal of the first electrochemical cell , wherein the first adapter comprises a first recess positioned proximate to the first terminal ; - a second adapter covering at least a portion of the second terminal of the second electrochemical cell , wherein the second adapter comprises a second recess positioned proximate to and at least partially aligned with the first recess ; and - a bus bar that spans between the first recess of the first adapter and the second recess of the second adapter to establish an electrical path, wherein the bus bar is disposed within the first and second recesses such that a top surface of the bus bar is disposed no higher than the top surfaces of the first and second terminals with respect to a vertical axis extending parallel with the first and second terminals , wherein a first top surface of the first adapter is flush with the top surface of the first terminal immediately adjacent to the first terminal , and wherein a second top surface of the second adapter is flush with the top surface of the second terminal immediately adjacent to the second terminal . - a first electrochemical cell having a first terminal ; - a second electrochemical cell having a second terminal ; and - a bus bar connection electrically connecting the first and second electrochemical cells , comprising: - a first adapter covering at least a portion of the first terminal of the first electrochemical cell , wherein the first adapter comprises a first recess positioned proximate to the first terminal ; - a second adapter covering at least a portion of the second terminal of the second electrochemical cell , wherein the second adapter comprises a second recess positioned proximate to and at least partially aligned with the first recess ; and - a bus bar that spans between the first recess of the first adapter and the second recess of the second adapter to establish an electrical path, - a first adapter covering at least a portion of the first terminal of the first electrochemical cell , wherein the first adapter comprises a first recess positioned proximate to the first terminal ; - a second adapter covering at least a portion of the second terminal of the second electrochemical cell , wherein the second adapter comprises a second recess positioned proximate to and at least partially aligned with the first recess ; and - a bus bar that spans between the first recess of the first adapter and the second recess of the second adapter to establish an electrical path,
A mobile terminal , comprising a camera including a front camera disposed on a front surface of a body of the mobile terminal and a rear camera disposed on a rear surface of the body, the mobile terminal further comprises a controller configured to activate the camera when an event occurs, and sense whether or not the mobile terminal is mounted on a vehicle and whether or not the vehicle is driving using an image received through the front camera and an image received through the rear camera , determine that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle based on a change of an image in a region having a size smaller than a predetermined reference size on the image received through the front camera , and a change of an image in a region having a size larger than the reference size on the image received through the rear camera , and recognize a gesture of a user to activate a gesture function for controlling the event when it is determined that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle according to the sensed result. activate the camera when an event occurs, and sense whether or not the mobile terminal is mounted on a vehicle and whether or not the vehicle is driving using an image received through the front camera and an image received through the rear camera , determine that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle based on a change of an image in a region having a size smaller than a predetermined reference size on the image received through the front camera , and a change of an image in a region having a size larger than the reference size on the image received through the rear camera , and recognize a gesture of a user to activate a gesture function for controlling the event when it is determined that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle according to the sensed result.
A process for preparing an aluminum alloy article, comprising: heating at least one part of a shaped aluminum alloy article having one or more parts, one or more times to a heat treatment temperature of 250 to 300 °C at a heating rate of 10 to 220 °C/second; maintaining the heat treatment temperature for a time period of 60 seconds or less, wherein the at least one part of the shaped aluminum alloy article comprises an age-hardenable, heat-treatable aluminum alloy; and shaping an aluminum alloy sheet of an age-hardenable, heat-treatable aluminum alloy to form a shaped aluminum alloy article having one or more parts prior to heating the at least one part of the shaped aluminum alloy article; wherein the age-hardenable, heat-treatable aluminum alloy is a 2xxx, 6xxx or 7xxx series aluminum alloy. heating at least one part of a shaped aluminum alloy article having one or more parts, one or more times to a heat treatment temperature of 250 to 300 °C at a heating rate of 10 to 220 °C/second; maintaining the heat treatment temperature for a time period of 60 seconds or less, wherein the at least one part of the shaped aluminum alloy article comprises an age-hardenable, heat-treatable aluminum alloy; and shaping an aluminum alloy sheet of an age-hardenable, heat-treatable aluminum alloy to form a shaped aluminum alloy article having one or more parts prior to heating the at least one part of the shaped aluminum alloy article; wherein the age-hardenable, heat-treatable aluminum alloy is a 2xxx, 6xxx or 7xxx series aluminum alloy.
An image forming apparatus comprising: a developing unit arranged to contain a mixture of toner and carrier; a toner sensor which is disposed in the developing unit; a controller arranged to determine a control voltage for the toner sensor using change information on a change in a quantity of electric charge which changes according to a time during which the image forming apparatus is used or paused, and to drive the toner sensor using the determined control voltage to compensate an output value of the toner sensor; and a counter unit arranged to count a number of revolutions of a developing roller of the developing unit and a pause time of the image forming apparatus; a first storage unit arranged to store information on an initial control voltage which is matched with each quantity of electric charge; and a second storage unit arranged to store the change information, wherein the controller is arranged to calculate a voltage compensation value using the number of revolutions, the pause time, and the change information, to detect an initial control voltage matched with an initial quantity of electric charge sensed by the toner sensor from the first storage unit, and to calculate the control voltage by adding the voltage compensation value to the detected initial control voltage. a developing unit arranged to contain a mixture of toner and carrier; a toner sensor which is disposed in the developing unit; a controller arranged to determine a control voltage for the toner sensor using change information on a change in a quantity of electric charge which changes according to a time during which the image forming apparatus is used or paused, and to drive the toner sensor using the determined control voltage to compensate an output value of the toner sensor; and a counter unit arranged to count a number of revolutions of a developing roller of the developing unit and a pause time of the image forming apparatus; a first storage unit arranged to store information on an initial control voltage which is matched with each quantity of electric charge; and a second storage unit arranged to store the change information, wherein the controller is arranged to calculate a voltage compensation value using the number of revolutions, the pause time, and the change information, to detect an initial control voltage matched with an initial quantity of electric charge sensed by the toner sensor from the first storage unit, and to calculate the control voltage by adding the voltage compensation value to the detected initial control voltage.
A liquid ejecting head for mounting on a carriage in which a first positioning hole (H62A) defined by a first inner surface (H62AS) is provided, the head comprising: a first positioning member ; and a first intermediate member including a first expansion portion being capable of being inserted into the first positioning hole, wherein the first expansion portion includes a first insertion hole (H73) into which the first positioning member can be inserted and is configured to expand in the radial direction by the first positioning member being inserted into the first insertion hole, characterised in that the first expansion portion abuts on the first inner surface by expanding in a radial direction intersecting with an insertion direction of the first expansion portion. a first positioning member ; and a first intermediate member including a first expansion portion being capable of being inserted into the first positioning hole, wherein the first expansion portion includes a first insertion hole (H73) into which the first positioning member can be inserted and is configured to expand in the radial direction by the first positioning member being inserted into the first insertion hole, characterised in that the first expansion portion abuts on the first inner surface by expanding in a radial direction intersecting with an insertion direction of the first expansion portion.
Use of a binary composition containing 2,3,3,3-tetrafluoropropene and difluoromethane as heat-transfer fluid in compression-type heat-transfer systems, with exchangers operating in countercurrent mode or in cross-current mode with a countercurrent tendency, as replacement for R-404A or R-407C.
A stent comprising: a first longitudinally extended cylinder having a C-shaped cross-section, the first cylinder comprising a plurality of first longitudinal struts and an array of first radial struts extending between the first longitudinal struts ; and a second longitudinally extended cylinder having a C-shaped cross-section, the second cylinder comprising a plurality of second longitudinal struts and an array of second radial struts extending between the second longitudinal struts ; wherein a part of the first cylinder and a part of the second cylinder overlap to form a dense mesh, characterized in that : the first cylinder and the second cylinder are attached at a joining location comprising a part of the first longitudinal struts and a part of the second longitudinal struts , and in that the first cylinder and the second cylinder are attached at the joining location by winding a tube or a coil around the part of the first longitudinal struts and the part of the second longitudinal struts . a first longitudinally extended cylinder having a C-shaped cross-section, the first cylinder comprising a plurality of first longitudinal struts and an array of first radial struts extending between the first longitudinal struts ; and a second longitudinally extended cylinder having a C-shaped cross-section, the second cylinder comprising a plurality of second longitudinal struts and an array of second radial struts extending between the second longitudinal struts ; wherein a part of the first cylinder and a part of the second cylinder overlap to form a dense mesh, characterized in that : the first cylinder and the second cylinder are attached at a joining location comprising a part of the first longitudinal struts and a part of the second longitudinal struts , and in that