mhurhangee/ep-ind-claims huggingface dataset:
Drive circuit for driving a crystal oscillator comprising a first and a second terminal, the drive circuit comprising: - a first inductor (L D) comprising a first terminal and a second terminal; - an electrical energy source connected to the first terminal; and - a switching circuit connected between the second terminal and the crystal oscillator, the switching circuit being configured to operate at least in an off state, in which it conveys substantially no electrical energy to the crystal oscillator, and in an on state, in which it conveys electrical energy to the crystal oscillator, said switching circuit including a first switch and a second switch, characterized in that the first inductor (L D) is arranged to store energy in its magnetic field while the switching circuit is in the off state, and, when the switching circuit is in the on state, the switching circuit is arranged to use at least some of the energy stored in the magnetic field to deliver a surge of current from the electrical energy source to the crystal oscillator, in that the first switch is a first NMOS transistor and the second switch is a second PMOS transistor, and in that gate terminals of the first and second MOS transistors (17, 19) are connected to a common node connected to the second oscillator terminal, a drain of the first NMOS transistor and a source of the second PMOS transistor being connected to the second terminal of the first inductor (L D), the drain of the second PMOS transistor being connected to the first oscillator terminal, and wherein the switching circuit is configured to be in the off state when the electrical potential at the common node is greater than a first threshold value, and in the on state when an electrical difference potential between the second terminal and the common node is above a second threshold value. - a first inductor (L D) comprising a first terminal and a second terminal; - an electrical energy source connected to the first terminal; and - a switching circuit connected between the second terminal and the crystal oscillator, the switching circuit being configured to operate at least in an off state, in which it conveys substantially no electrical energy to the crystal oscillator, and in an on state, in which it conveys electrical energy to the crystal oscillator, said switching circuit including a first switch and a second switch,
An electronic device, comprising: a first memory; a first processor; a second processor configured to have power consumption less than that of the first processor; and a second memory configured to be accessed by the second processor, wherein the first processor is configured to: identify state information of a battery of the electronic device; based on the state information of the battery, determine whether or not to transmit driving information of the second processor; and based on the determination of transmission of the driving information of the second processor, store the driving information of the second processor, which is stored in the first memory, in the second memory, wherein the second processor is configured to, based on the driving information of the second processor, which is stored in the second memory, transmit authorization information to an external device; and wherein the first processor is further configured to be terminated at a time at which the second processor is driven. a first memory; a first processor; a second processor configured to have power consumption less than that of the first processor; and a second memory configured to be accessed by the second processor, wherein the first processor is configured to: identify state information of a battery of the electronic device; based on the state information of the battery, determine whether or not to transmit driving information of the second processor; and based on the determination of transmission of the driving information of the second processor, store the driving information of the second processor, which is stored in the first memory, in the second memory, wherein the second processor is configured to, based on the driving information of the second processor, which is stored in the second memory, transmit authorization information to an external device; and wherein the first processor is further configured to be terminated at a time at which the second processor is driven. identify state information of a battery of the electronic device; based on the state information of the battery, determine whether or not to transmit driving information of the second processor; and based on the determination of transmission of the driving information of the second processor, store the driving information of the second processor, which is stored in the first memory, in the second memory, wherein the second processor is configured to, based on the driving information of the second processor, which is stored in the second memory, transmit authorization information to an external device; and wherein the first processor is further configured to be terminated at a time at which the second processor is driven.
A liquid crystal display pixel electrode, for a pixel unit, wherein the liquid crystal display pixel electrode further comprises: a trunk, corresponding to a boundary between multiple liquid crystal domains of the pixel unit; a plurality of pixel electrode branches, which extend from the trunk in different directions in different ones of the liquid crystal domains, wherein each of the liquid crystal domains comprises multiple ones of the pixel electrode branches that are substantially parallel to and spaced from each other and the pixel electrode branches of two adjacent ones of the liquid crystal domains extend in different directions; a first enclosure frame that is connected to a distal end of each of the pixel electrode branches and the trunk; and characterised in that: at least one second enclosure frame that is arranged around an outer circumference of the first enclosure frame and connected to the trunk; wherein the first enclosure frame and the second enclosure frame have shapes that are the same and spaced from each other so as to form an additional liquid crystal domain therebetween. a trunk, corresponding to a boundary between multiple liquid crystal domains of the pixel unit; a plurality of pixel electrode branches, which extend from the trunk in different directions in different ones of the liquid crystal domains, wherein each of the liquid crystal domains comprises multiple ones of the pixel electrode branches that are substantially parallel to and spaced from each other and the pixel electrode branches of two adjacent ones of the liquid crystal domains extend in different directions; a first enclosure frame that is connected to a distal end of each of the pixel electrode branches and the trunk; and characterised in that: at least one second enclosure frame that is arranged around an outer circumference of the first enclosure frame and connected to the trunk; wherein the first enclosure frame and the second enclosure frame have shapes that are the same and spaced from each other so as to form an additional liquid crystal domain therebetween.
A computer implemented method of determining a predicted response of a subject to a TNF inhibitor, comprising: calculating a predicted response value from a sample in a subject prior to administration of a TNF inhibitor to the subject, wherein the predicted response value is determined by: (a) an amount of an mRNA sequence corresponding to SEQ ID NO: 2 (C1orf105), present in the sample; and (b) an amount of an mRNA sequence comprising SEQ ID NO: 3 (KCTD4), present in the sample; wherein a response value r below 0 indicates that the subject will not respond, and a response value r equal to or above 0 indicates that a subject will respond, wherein when normalized, the predicted response value is substantially equivalent to the final r calculated in the sequence of operations below: r 02 = ADD r 5, r 2 r 00 = ADD r 6, r 1 r 00 = DIV r 2, r 0 r 01 = SIN r 6 r 00 = SUB r 0, r 1 r 02 = MOD r 1. r 0 r 03 = MOD r 4, r 0 r 00 = SIN r 0 r 00 = ADD r 2, r 0 r 03 = MUL r 3, r 3 r 02 = ADD r 6, r 3 r 03 = DIV r 3, r 2 r 00 = ADD r 3, r 0 r 00 = ADD r 3, r 0 wherein: r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1. (a) an amount of an mRNA sequence corresponding to SEQ ID NO: 2 (C1orf105), present in the sample; and (b) an amount of an mRNA sequence comprising SEQ ID NO: 3 (KCTD4), present in the sample; wherein a response value r below 0 indicates that the subject will not respond, and a response value r equal to or above 0 indicates that a subject will respond, wherein when normalized, the predicted response value is substantially equivalent to the final r calculated in the sequence of operations below: r 02 = ADD r 5, r 2 r 00 = ADD r 6, r 1 r 00 = DIV r 2, r 0 r 01 = SIN r 6 r 00 = SUB r 0, r 1 r 02 = MOD r 1. r 0 r 03 = MOD r 4, r 0 r 00 = SIN r 0 r 00 = ADD r 2, r 0 r 03 = MUL r 3, r 3 r 02 = ADD r 6, r 3 r 03 = DIV r 3, r 2 r 00 = ADD r 3, r 0 r 00 = ADD r 3, r 0 wherein: r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1. r is a normalized value of (a); r is a normalized value of (b), r is equal to 5; r is equal to 2; and r is equal to 1.
Method for handling faults in industrial trucks, in particular in driverless transport systems which are equipped with at least one sensor unit for detecting the surroundings of the industrial truck, the method comprising: - during a regular operation of the industrial truck, permanent monitoring of the surroundings by means of the at least one sensor unit; - checking the sensor data obtained in such a manner for a presence of an obstacle; and - in the event of an obstacle being ascertained, triggering a time measurement, wherein the operation of the industrial truck and the monitoring of the surroundings are continued during the time measurement; characterised in that if, during a predetermined time span after the triggering of the time measurement, the obstacle is no longer ascertained, the time measurement is terminated and the operation of the industrial truck is continued, and if, after the predetermined time span after the triggering of the time measurement, the obstacle is still ascertained, the industrial truck is switched into a fault mode. - during a regular operation of the industrial truck, permanent monitoring of the surroundings by means of the at least one sensor unit; - checking the sensor data obtained in such a manner for a presence of an obstacle; and - in the event of an obstacle being ascertained, triggering a time measurement, wherein the operation of the industrial truck and the monitoring of the surroundings are continued during the time measurement;
An apparatus for arranging rod-shaped articles (13, 14, 15) to be fed into pockets on an endless conveyor operable to travel in a conveyance direction, the apparatus comprising: a hopper operable to receive rod-shaped articles (13, 14, 15) and to arrange the rod-shaped articles (13, 14, 15) to be fed into the pockets; a main feeder (70, 700) positioned vertically above the hopper and operable to feed first rod-shaped articles downwards into the hopper; a lateral feeder (60, 600) spaced at least partially from the hopper in a direction orthogonal to the conveyance direction of the endless conveyor, whereby the lateral feeder (60, 600) is operable to feed second rod-shaped articles along a feeding path through the lateral feeder (60, 600) into the hopper such that the feeding of the second rod-shaped articles is performed under gravity along the full feeding path through the lateral feeder (60, 600) into the hopper, wherein a downstream end portion (61, 601) of the lateral feeder (60, 600) ends vertically above the hopper. a hopper operable to receive rod-shaped articles (13, 14, 15) and to arrange the rod-shaped articles (13, 14, 15) to be fed into the pockets; a main feeder (70, 700) positioned vertically above the hopper and operable to feed first rod-shaped articles downwards into the hopper; a lateral feeder (60, 600) spaced at least partially from the hopper in a direction orthogonal to the conveyance direction of the endless conveyor, whereby the lateral feeder (60, 600) is operable to feed second rod-shaped articles along a feeding path through the lateral feeder (60, 600) into the hopper such that the feeding of the second rod-shaped articles is performed under gravity along the full feeding path through the lateral feeder (60, 600) into the hopper, wherein a downstream end portion (61, 601) of the lateral feeder (60, 600) ends vertically above the hopper.
Device for transporting tubular bag bodies, comprising a longitudinal transport apparatus by means of which the tubular bag bodies can be transported substantially in the direction of the longitudinal extent thereof, comprising a transverse transport apparatus by means of which the tubular bag bodies can be transported substantially perpendicularly to the longitudinal extent thereof, and comprising a transfer apparatus for transferring the tubular bag bodies from the longitudinal transport apparatus to the transverse transport apparatus, the transfer apparatus having a support surface for supporting the tubular bag bodies, the transfer apparatus having at least one upper support surface and one lower support surface for the tubular bag bodies, a switching element being provided which can be adjusted between an upper position and a lower position, it being possible for the tubular bag bodies to be supplied to the upper support surface in the upper position of the switching element and to the lower support surface in the lower position of the switching element, an upper conveyor surface which slopes upwards in the longitudinal direction being provided between the switching element and the upper support surface and a lower conveyor surface which slopes downwards in the longitudinal direction being provided between the switching element and the lower support surface, characterised in that the switching element has an upper guide element and a lower guide element, a guide slot for the passage of the tubular bag bodies being formed between the upper guide element and the lower guide element, a wedge element for forming front portions of the upper and lower conveyor surface being provided between the switching element and the transfer apparatus, the wedge element being pivotable between an upper position corresponding to the lower position of the switching element and a lower position corresponding to the upper position of the switching element.
A mascara composition, comprising: (a) at least one jojoba butter; (b) at least one alkaline agent comprising at least one primary amino group and at least three hydroxyl groups; (c) at least one wax; and (d) water. (a) at least one jojoba butter; (b) at least one alkaline agent comprising at least one primary amino group and at least three hydroxyl groups; (c) at least one wax; and (d) water.
A system comprising: one or more processors located on a computing device; at least one tangible computer-readable storage medium storing instructions executable by the one or more processors, the executable instructions configured to cause the computing device to: obtain a virtual pointer identifying an address for directly accessing a memory of a Field Programmable Gate Array, FPGA,; initiate a transmission of the virtual pointer to a Graphics Processing Unit, GPU, driver associated with a GPU that is external to the FPGA; and initiate a transfer of data directly between the GPU and the FPGA via a bus interface external to the FPGA without storing the data in a memory of a central processing unit, CPU, as an intermediary operation. one or more processors located on a computing device; at least one tangible computer-readable storage medium storing instructions executable by the one or more processors, the executable instructions configured to cause the computing device to: obtain a virtual pointer identifying an address for directly accessing a memory of a Field Programmable Gate Array, FPGA,; initiate a transmission of the virtual pointer to a Graphics Processing Unit, GPU, driver associated with a GPU that is external to the FPGA; and initiate a transfer of data directly between the GPU and the FPGA via a bus interface external to the FPGA without storing the data in a memory of a central processing unit, CPU, as an intermediary operation. obtain a virtual pointer identifying an address for directly accessing a memory of a Field Programmable Gate Array, FPGA,; initiate a transmission of the virtual pointer to a Graphics Processing Unit, GPU, driver associated with a GPU that is external to the FPGA; and initiate a transfer of data directly between the GPU and the FPGA via a bus interface external to the FPGA without storing the data in a memory of a central processing unit, CPU, as an intermediary operation.
A branched polymer comprising a repeating unit having a partial structure represented by the following formula and a repeating unit having a crosslinking group: wherein Ar 1, Ar 3, Ar 4 and Ar 5 each independently represent a divalent aromatic hydrocarbon-cyclic group optionally having a substituent or a divalent aromatic heterocyclic group optionally having a substituent, Ar 2 represents an aromatic hydrocarbon-cyclic group optionally having a substituent, or an aromatic heterocyclic group optionally having a substituent, R 1 represents an alkyl group optionally having a substituent, or an alkoxy group optionally having a substituent, R 2 to R 7 each independently represent a hydrogen atom, an alkyl group optionally having a substituent, an alkoxy group optionally having a substituent, an aromatic hydrocarbon-cyclic group optionally having a substituent, or an aromatic heterocyclic group optionally having a substituent, R 2 and R 3 may bond to each other to form a ring. R 4 and R 5 may bond to each other to form a ring. R 6 and R 7 may bond to each other to form a ring, 1, m and n each independently indicate an integer of from 0 to 2, and Multiple Ar 1 to Ar 5 or R 2 to R 7 in the formula may be the same or different. wherein Ar 1, Ar 3, Ar 4 and Ar 5 each independently represent a divalent aromatic hydrocarbon-cyclic group optionally having a substituent or a divalent aromatic heterocyclic group optionally having a substituent, Ar 2 represents an aromatic hydrocarbon-cyclic group optionally having a substituent, or an aromatic heterocyclic group optionally having a substituent, R 1 represents an alkyl group optionally having a substituent, or an alkoxy group optionally having a substituent, R 2 to R 7 each independently represent a hydrogen atom, an alkyl group optionally having a substituent, an alkoxy group optionally having a substituent, an aromatic hydrocarbon-cyclic group optionally having a substituent, or an aromatic heterocyclic group optionally having a substituent, R 2 and R 3 may bond to each other to form a ring. R 4 and R 5 may bond to each other to form a ring. R 6 and R 7 may bond to each other to form a ring, 1, m and n each independently indicate an integer of from 0 to 2, and Multiple Ar 1 to Ar 5 or R 2 to R 7 in the formula may be the same or different.
Device (16, 161) for coupling to a spindle of a machine tool comprising a holder for coupling to the spindle of the machine tool, a conveyor element (25, 27) and a material machining unit, wherein the material machining unit comprises a gear, which comprises a force-receiving element and a force-delivery element (24, 28), wherein the force-receiving element is embodied to receive a mechanical force from the spindle, wherein the force-delivery element (24, 28) is embodied to deliver a mechanical force to a conveyor element (25, 27), wherein the conveyor element (25, 27) is embodied to convey a filament (51, 52), wherein the transmission of the force absorbed by the force-receiving element to the force-delivery element (24, 28) takes place purely mechanically, wherein the force-receiving element is embodied separately from the force-delivery element (24, 28) and wherein an axis of rotation of the torque absorbed by the force-receiving element is substantially orthogonal to an axis of rotation of the conveyor element (25, 27) supplied by the force-delivery element (24, 28), wherein the gear is embodied as a combination gear, which combines a gear train comprising a first gear wheel and a second gear wheel with a worm gear comprising a worm shaft and a worm wheel, wherein the conveyor element (25, 27) has two opposing pressure rollers, wherein one of the two opposing pressure rollers is designed as a worm wheel of the worm gear. wherein the material machining unit comprises a gear, which comprises a force-receiving element and a force-delivery element (24, 28), wherein the force-receiving element is embodied to receive a mechanical force from the spindle, wherein the force-delivery element (24, 28) is embodied to deliver a mechanical force to a conveyor element (25, 27), wherein the conveyor element (25, 27) is embodied to convey a filament (51, 52), wherein the transmission of the force absorbed by the force-receiving element to the force-delivery element (24, 28) takes place purely mechanically, wherein the force-receiving element is embodied separately from the force-delivery element (24, 28) and wherein an axis of rotation of the torque absorbed by the force-receiving element is substantially orthogonal to an axis of rotation of the conveyor element (25, 27) supplied by the force-delivery element (24, 28), wherein the gear is embodied as a combination gear, which combines a gear train comprising a first gear wheel and a second gear wheel with a worm gear comprising a worm shaft and a worm wheel, wherein the conveyor element (25, 27) has two opposing pressure rollers, wherein one of the two opposing pressure rollers is designed as a worm wheel of the worm gear.
A method of preparing a non-aqueous cathode material for a lithium secondary battery, the method comprising: a process of preparing a spherical transition metal complex carbonate by co-precipitating an aqueous solution in which a nickel material, a cobalt material, a manganese material, a carbonate group material, and an ammonia material are mixed; a process of coating a surface of the spherical transition metal complex carbonate with nano-sized titanium dioxide; and a process of preparing a lithium-rich cathode material by mixing a lithium material with the transition metal complex carbonate coated with nano-sized titanium dioxide and performing a heat treatment thereon to prepare a spherical lithium-rich cathode material substituted with other metals, where in the process of preparing a lithium-rich cathode material, the heat treatment is performed at a temperature in a range of 900 to 1100 °C. a process of preparing a spherical transition metal complex carbonate by co-precipitating an aqueous solution in which a nickel material, a cobalt material, a manganese material, a carbonate group material, and an ammonia material are mixed; a process of coating a surface of the spherical transition metal complex carbonate with nano-sized titanium dioxide; and a process of preparing a lithium-rich cathode material by mixing a lithium material with the transition metal complex carbonate coated with nano-sized titanium dioxide and performing a heat treatment thereon to prepare a spherical lithium-rich cathode material substituted with other metals, where in the process of preparing a lithium-rich cathode material, the heat treatment is performed at a temperature in a range of 900 to 1100 °C.
A hanging scale sensor apparatus, comprising a weighing sensor, an adapter beam, a support base and a scale pan suspension structure, wherein the adapter beam is connected to one end of a bottom face of the weighing sensor, and the support base is connected to the other end of the bottom face of the weighing sensor, such that the adapter beam and the support base are positioned directly below the weighing sensor; and the scale pan suspension structure is connected to the adapter beam for positioning the hanging scale sensor apparatus.