mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a positive electrode active material for a secondary battery, comprising: preparing a lithium transition metal oxide including nickel (Ni) and cobalt (Co), and at least one selected from the group consisting of aluminum (Al), manganese (Mn), and a combination thereof; rinsing the lithium transition metal oxide with water to remove lithium by-products present on the surface of the lithium transition metal oxide; and subjecting the lithium transition metal oxide rinsed with water to a high-temperature heat treatment, wherein the high-temperature heat treatment includes: a temperature elevating section for performing the heat treatment while elevating the temperature; a maintaining section for performing the heat treatment while maintaining the elevated temperature; and a cooling section for cooling, wherein the temperature elevating section occupies 20 to 30% of the total high-temperature heat treatment time; and the maintaining section occupies 40 to 50% of the total high-temperature heat treatment time. preparing a lithium transition metal oxide including nickel (Ni) and cobalt (Co), and at least one selected from the group consisting of aluminum (Al), manganese (Mn), and a combination thereof; rinsing the lithium transition metal oxide with water to remove lithium by-products present on the surface of the lithium transition metal oxide; and subjecting the lithium transition metal oxide rinsed with water to a high-temperature heat treatment, wherein the high-temperature heat treatment includes: a temperature elevating section for performing the heat treatment while elevating the temperature; a maintaining section for performing the heat treatment while maintaining the elevated temperature; and a cooling section for cooling, wherein the temperature elevating section occupies 20 to 30% of the total high-temperature heat treatment time; and the maintaining section occupies 40 to 50% of the total high-temperature heat treatment time. a temperature elevating section for performing the heat treatment while elevating the temperature; a maintaining section for performing the heat treatment while maintaining the elevated temperature; and a cooling section for cooling, wherein the temperature elevating section occupies 20 to 30% of the total high-temperature heat treatment time; and the maintaining section occupies 40 to 50% of the total high-temperature heat treatment time.
An autonomous transportation network comprising a plurality of autonomous vehicles with an onboard processor and vehicle memory for calculating a route between an origin and a destination and a vehicle antenna for transmitting the calculated route ; a control management center comprising a control management processor and a central memory for independently calculating the routes of the plurality of autonomous vehicles ; and a plurality of beacons connected to the control management center and receiving redirection information from the control management center for transmission to one or more of the plurality of autonomous vehicles in the event of a disturbance, wherein the control management center is further adapted for simulating a traffic demand and the routes of the autonomous vehicles , for comparing the routes calculated for the plurality of autonomous vehicles with the route independently calculated in the control management center , for determining corrected route instructions for the autonomous vehicles in case of a necessary redirection along the route , and for sending corrected route instructions to the one of the plurality of autonomous vehicles in the event of a disturbance. a plurality of autonomous vehicles with an onboard processor and vehicle memory for calculating a route between an origin and a destination and a vehicle antenna for transmitting the calculated route ; a control management center comprising a control management processor and a central memory for independently calculating the routes of the plurality of autonomous vehicles ; and a plurality of beacons connected to the control management center and receiving redirection information from the control management center for transmission to one or more of the plurality of autonomous vehicles in the event of a disturbance, wherein the control management center is further adapted for simulating a traffic demand and the routes of the autonomous vehicles , for comparing the routes calculated for the plurality of autonomous vehicles with the route independently calculated in the control management center , for determining corrected route instructions for the autonomous vehicles in case of a necessary redirection along the route , and for sending corrected route instructions to the one of the plurality of autonomous vehicles in the event of a disturbance.
A refrigerator comprising: a cabinet provided with a refrigerating compartment and an evaporation chamber ; a first door connected to a front surface of the cabinet to open and close at least a portion of the refrigerating compartment ; a housing provided in the first door ; an ice making room provided at an inner upper side of the housing and having a cool air inflow hole and a cool air discharge hole formed on one side thereof; a chiller room provided at an inner lower side of the housing and having a cool air discharge hole on one surface thereof; a second door rotatably connected to the first door to open and close the chiller room ; a partition wall vertically defining the ice making room and the chiller room and having a communication hole communicating the ice making room with the chiller room; a damper opening and closing the communication hole so as to control a cool air flow between the ice making room and the chiller room; a cool air supply duct connecting an outlet of the evaporation chamber and the cool air inflow hole of the ice making room such that cool air of the evaporation chamber is supplied to the ice making room; and a cool air return duct having a first inlet connected to the cool air discharge hole of the ice making chamber and a second inlet connected to the cool air discharge hole of the chiller room. a cabinet provided with a refrigerating compartment and an evaporation chamber ; a first door connected to a front surface of the cabinet to open and close at least a portion of the refrigerating compartment ; a housing provided in the first door ; an ice making room provided at an inner upper side of the housing and having a cool air inflow hole and a cool air discharge hole formed on one side thereof; a chiller room provided at an inner lower side of the housing and having a cool air discharge hole on one surface thereof; a second door rotatably connected to the first door to open and close the chiller room ; a partition wall vertically defining the ice making room and the chiller room and having a communication hole communicating the ice making room with the chiller room; a damper opening and closing the communication hole so as to control a cool air flow between the ice making room and the chiller room; a cool air supply duct connecting an outlet of the evaporation chamber and the cool air inflow hole of the ice making room such that cool air of the evaporation chamber is supplied to the ice making room; and a cool air return duct having a first inlet connected to the cool air discharge hole of the ice making chamber and a second inlet connected to the cool air discharge hole of the chiller room.
An adjustable wrench, comprising a handle , a neck , a first jaw , a second jaw and an adjustment mechanism , wherein the first jaw is connected to the handle by the neck ; the second jaw is movably disposed on the neck and is disposed opposite the first jaw to form a holding space for holding an object; the adjustment mechanism is disposed on the neck and is configured to be able to drive the second jaw to move relative to the first jaw to adjust a size of the holding space; wherein the adjustment mechanism comprises a worm and a pin , and the worm comprises an inner tube and thread teeth ; the inner tube is of a cylinder and has an inner cavity penetrating in an axial direction; the pin passes through the inner cavity and is fixedly connected to the neck ; the thread teeth are spirally disposed on an outer surface of the inner tube; the second jaw meshes with the thread teeth and is configured to be able to move relative to the first jaw as the worm rotates; and the thread teeth have more than one helix, characterized in that : a lead angle (a1) of the worm is not greater than a self-locking angle, the self-locking angle corresponding to a material of the worm and the second jaw ; wherein the thread teeth have two helices, and the lead angle (a1) is in a range of 7° to 8°. the first jaw is connected to the handle by the neck ; the second jaw is movably disposed on the neck and is disposed opposite the first jaw to form a holding space for holding an object; the adjustment mechanism is disposed on the neck and is configured to be able to drive the second jaw to move relative to the first jaw to adjust a size of the holding space; wherein the adjustment mechanism comprises a worm and a pin , and the worm comprises an inner tube and thread teeth ; the inner tube is of a cylinder and has an inner cavity penetrating in an axial direction; the pin passes through the inner cavity and is fixedly connected to the neck ; the thread teeth are spirally disposed on an outer surface of the inner tube; the second jaw meshes with the thread teeth and is configured to be able to move relative to the first jaw as the worm rotates; and the thread teeth have more than one helix, characterized in that : a lead angle (a1) of the worm is not greater than a self-locking angle, the self-locking angle corresponding to a material of the worm and the second jaw ; wherein the thread teeth have two helices, and the lead angle (a1) is in a range of 7° to 8°. a lead angle (a1) of the worm is not greater than a self-locking angle, the self-locking angle corresponding to a material of the worm and the second jaw ; wherein the thread teeth have two helices, and the lead angle (a1) is in a range of 7° to 8°.
A method for producing a veneered board, which comprises a veneer having an upper face and a lower face and a carrier board having an upper face and a lower face , comprising the steps of: - providing a veneer , - applying an additive between binder and veneer , then applying a binder onto the upper face of the carrier board or the lower face of the veneer , wherein a PU prepolymer is used as the binder, - producing a stack of materials to be pressed comprising the carrier board and the veneer with the binder arranged between the carrier board and the veneer and with the additive arranged between the binder and the veneer , - pressing the stack of materials to be pressed in order to form a veneered board wherein one of the following substances is used as an additive , either individually or in a mixture: flame retardant, UV stabilizer, infrared absorber, agent for increasing conductivity, antibacterial agent, antifungal agent, an-tialgal agent, hydrophobizing agent, bleaching agent, stain. - providing a veneer , - applying an additive between binder and veneer , then applying a binder onto the upper face of the carrier board or the lower face of the veneer , wherein a PU prepolymer is used as the binder, - producing a stack of materials to be pressed comprising the carrier board and the veneer with the binder arranged between the carrier board and the veneer and with the additive arranged between the binder and the veneer , - pressing the stack of materials to be pressed in order to form a veneered board
Method for encapsulating an integrated circuit , comprising: - the formation of first and second electrically insulating supports , the first and second supports formed each having a planar surface , so as to form a recess in the first support with respect to its planar surface , and so as to form, with respect to the planar surface of each of the first and second supports, first and second reliefs, such that the first and second reliefs of the first support cooperate with the first and second reliefs of the second support to guide the first support by sliding with respect to the second support in a direction transversal to said planar surfaces ; - the formation of a first electrical contact in said recess ; - the positioning of a chip in said recess and the formation of an electrical contact between a first electrode of the chip and said first electrical contact ; - the formation of a second electrical contact on said second support and the deposition of a brazing material on said second electrical contact; - the superposing of the first and second supports so as to superpose their first and second respective reliefs and so as to position the brazing material plumb with a second electrode of said chip ; - the sliding of the first support in said transverse direction with respect to the second support to bring the brazing material into contact with the second electrode of the chip; - the brazing of the brazing material so as to fix said chip to said second support . - the formation of first and second electrically insulating supports , the first and second supports formed each having a planar surface , so as to form a recess in the first support with respect to its planar surface , and so as to form, with respect to the planar surface of each of the first and second supports, first and second reliefs, such that the first and second reliefs of the first support cooperate with the first and second reliefs of the second support to guide the first support by sliding with respect to the second support in a direction transversal to said planar surfaces ; - the formation of a first electrical contact in said recess ; - the positioning of a chip in said recess and the formation of an electrical contact between a first electrode of the chip and said first electrical contact ; - the formation of a second electrical contact on said second support and the deposition of a brazing material on said second electrical contact; - the superposing of the first and second supports so as to superpose their first and second respective reliefs and so as to position the brazing material plumb with a second electrode of said chip ; - the sliding of the first support in said transverse direction with respect to the second support to bring the brazing material into contact with the second electrode of the chip; - the brazing of the brazing material so as to fix said chip to said second support .
Nacelle of an aircraft , the said nacelle having an air intake and comprising: - a structure , - an upstream cowl fixed to the said structure in order to create an aerodynamic surface and extending rearward from the air intake , - an upper cowl arranged in the upper part of the nacelle and to the rear of the upstream cowl and having a starboard-side door and a port-side door , each door (200a-b) being articulated between a closed position in which the said door (200a-b) is aerodynamically continuous with the upstream cowl and an open position in which the said door (200a-b) uncovers an opening in the nacelle , each door (200a-b) having a front edge (202a-b) arranged at the front of the door (200a-b), a rear edge (204a-b) arranged at the rear of the door (200a-b), an inner edge (208a-b) which, in the closed position, is contiguous with the inner edge (208b-a) of the other door (200b-a), and an outer edge (206a-b) arranged on the opposite side of the said door (200a-b) to the inner edge (208a-b), - for each door (200a-b), an articulation arranged at the level of the outer edge (206a-b) and fixed between the door (200a-b) and the structure , the said articulation allowing the door (200a-b) to move from the open position to the closed position and vice versa, and - for each door (200a-b), a locking system distributed between the front edge (202a-b) and the rear edge (204a-b) and able to move between a locked position in which it blocks the movement of the door (200a-b) with respect to the structure and an unlocked position in which it allows the door (200a-b) to move with respect to the structure . - a structure , - an upstream cowl fixed to the said structure in order to create an aerodynamic surface and extending rearward from the air intake , - an upper cowl arranged in the upper part of the nacelle and to the rear of the upstream cowl and having a starboard-side door and a port-side door , each door (200a-b) being articulated between a closed position in which the said door (200a-b) is aerodynamically continuous with the upstream cowl and an open position in which the said door (200a-b) uncovers an opening in the nacelle , each door (200a-b) having a front edge (202a-b) arranged at the front of the door (200a-b), a rear edge (204a-b) arranged at the rear of the door (200a-b), an inner edge (208a-b) which, in the closed position, is contiguous with the inner edge (208b-a) of the other door (200b-a), and an outer edge (206a-b) arranged on the opposite side of the said door (200a-b) to the inner edge (208a-b), - for each door (200a-b), an articulation arranged at the level of the outer edge (206a-b) and fixed between the door (200a-b) and the structure , the said articulation allowing the door (200a-b) to move from the open position to the closed position and vice versa, and - for each door (200a-b), a locking system distributed between the front edge (202a-b) and the rear edge (204a-b) and able to move between a locked position in which it blocks the movement of the door (200a-b) with respect to the structure and an unlocked position in which it allows the door (200a-b) to move with respect to the structure .
An in-vivo vessel sealing end effector, the end effector comprising: a) an in vivo end effector body coupleable to an arm of an in vivo robotic device, wherein the end effector body is configured to be positioned entirely within a cavity of a patient, the end effector body comprising: (i) a cautery component shaft disposed within the body and operably coupled to a jaw actuation motor; and (ii) a first threaded collar disposed around and operably coupled to the cautery component shaft ; and b) a bipolar vessel cautery component operably coupled to a cautery component actuation motor and to the end effector body, the cautery component comprising: (i) a stationary jaw coupled to a distal end of the cautery component shaft; (ii) a mobile jaw pivotally coupled to the distal end of the cautery component shaft; and (iii) a cutting component operably coupled to a cutting component actuation motor and moveably coupled to the cautery component shaft . a) an in vivo end effector body coupleable to an arm of an in vivo robotic device, wherein the end effector body is configured to be positioned entirely within a cavity of a patient, the end effector body comprising: (i) a cautery component shaft disposed within the body and operably coupled to a jaw actuation motor; and (ii) a first threaded collar disposed around and operably coupled to the cautery component shaft ; and (i) a cautery component shaft disposed within the body and operably coupled to a jaw actuation motor; and (ii) a first threaded collar disposed around and operably coupled to the cautery component shaft ; and b) a bipolar vessel cautery component operably coupled to a cautery component actuation motor and to the end effector body, the cautery component comprising: (i) a stationary jaw coupled to a distal end of the cautery component shaft; (ii) a mobile jaw pivotally coupled to the distal end of the cautery component shaft; and (iii) a cutting component operably coupled to a cutting component actuation motor and moveably coupled to the cautery component shaft . (i) a stationary jaw coupled to a distal end of the cautery component shaft; (ii) a mobile jaw pivotally coupled to the distal end of the cautery component shaft; and (iii) a cutting component operably coupled to a cutting component actuation motor and moveably coupled to the cautery component shaft .
A method implemented by a user equipment configured for use in a wireless communication system , the method comprising: generating a random access preamble signal that comprises multiple symbol groups , with each symbol group on a single tone during a different time resource, according to a frequency hopping pattern that hops the random access preamble signal a fixed frequency distance at one or more symbol groups and hops the random access preamble signal a pseudo random frequency distance at one or more other symbol groups , wherein each symbol group comprises one or more symbols; and transmitting the random access preamble signal . generating a random access preamble signal that comprises multiple symbol groups , with each symbol group on a single tone during a different time resource, according to a frequency hopping pattern that hops the random access preamble signal a fixed frequency distance at one or more symbol groups and hops the random access preamble signal a pseudo random frequency distance at one or more other symbol groups , wherein each symbol group comprises one or more symbols; and transmitting the random access preamble signal .
Composite material comprising a first cover sheet , a second cover sheet , and a core layer arranged between the first cover sheet and the second cover sheet , said core layer comprising: a first adhesive layer in contact with the first cover sheet , a second adhesive layer in contact with the second cover sheet , and a flocking material in the form of individual fibres which extend from the first adhesive layer to the second adhesive layer , characterized in that the first cover sheet has a larger extension than the core layer and comprises at least a first edge region which is free from the core layer , wherein the first edge region extends from an outer edge of the first cover sheet to the core layer , wherein the extension of the first edge region is at least 20 mm beyond an outer edge of the core layer , and wherein the second cover sheet extends no more than 5 mm beyond the outer edge of the core layer . a first cover sheet , a second cover sheet , and a core layer arranged between the first cover sheet and the second cover sheet , said core layer comprising: a first adhesive layer in contact with the first cover sheet , a second adhesive layer in contact with the second cover sheet , and a flocking material in the form of individual fibres which extend from the first adhesive layer to the second adhesive layer , characterized in that the first cover sheet has a larger extension than the core layer and comprises at least a first edge region which is free from the core layer , wherein the first edge region extends from an outer edge of the first cover sheet to the core layer , wherein the extension of the first edge region is at least 20 mm beyond an outer edge of the core layer , and wherein the second cover sheet extends no more than 5 mm beyond the outer edge of the core layer . a first adhesive layer in contact with the first cover sheet , a second adhesive layer in contact with the second cover sheet , and a flocking material in the form of individual fibres which extend from the first adhesive layer to the second adhesive layer , characterized in that the first cover sheet has a larger extension than the core layer and comprises at least a first edge region which is free from the core layer , wherein the first edge region extends from an outer edge of the first cover sheet to the core layer , wherein the extension of the first edge region is at least 20 mm beyond an outer edge of the core layer , and wherein the second cover sheet extends no more than 5 mm beyond the outer edge of the core layer .