mhurhangee/ep-ind-claims huggingface dataset:
A power tool (1, 200) comprising: a brushless motor (4, 204) comprising: a stator including a plurality of windings (41U, 41V, 41W, 241A, 241B, 241C); and a rotor rotatable relative to the stator; converting means configured to convert an AC voltage supplied from an AC power supply into a varying DC voltage; voltage detecting means configured to detect the varying DC voltage; and conduction switching means (52, 53, 54) comprising an output line for applying the varying DC voltage to the plurality of windings, the conduction switching means being configured to perform: sequentially switching at least one winding to be applied with the varying DC voltage among the plurality of windings to rotate the rotor; and changing number of conducting windings on the basis of the varying DC voltage, the number of conducting windings being number of the at least one winding to be applied with the varying DC voltage. a stator including a plurality of windings (41U, 41V, 41W, 241A, 241B, 241C); and a rotor rotatable relative to the stator; converting means configured to convert an AC voltage supplied from an AC power supply into a varying DC voltage; voltage detecting means configured to detect the varying DC voltage; and conduction switching means (52, 53, 54) comprising an output line for applying the varying DC voltage to the plurality of windings, the conduction switching means being configured to perform: sequentially switching at least one winding to be applied with the varying DC voltage among the plurality of windings to rotate the rotor; and changing number of conducting windings on the basis of the varying DC voltage, the number of conducting windings being number of the at least one winding to be applied with the varying DC voltage. sequentially switching at least one winding to be applied with the varying DC voltage among the plurality of windings to rotate the rotor; and changing number of conducting windings on the basis of the varying DC voltage, the number of conducting windings being number of the at least one winding to be applied with the varying DC voltage.
An isolated pCS1 promoter nucleic acid sequence, which is a native sequence of Pichia pastoris comprising the pCS1 nucleic acid sequence SEQ ID 1, or a functionally active variant thereof which is a size variant, a mutant or hybrid of SEQ ID 1, or a combination thereof, wherein said functionally active variant has a length of 200-1500 bp, at least 60% sequence identity to the sequence of SEQ ID 1, and wherein said functionally active variant exhibits the same expression or transcriptional strength as the pCS1 nucleic acid sequence SEQ ID 1 +/- 20%, and/or at least a 1.1 fold increase compared to the native P. pastoris pGAP promoter set forth in SEQ ID 13, wherein the pCS1 promoter nucleic acid sequence is not SEQ ID NO:2 of WO2014/138703 A1.
A method for preventing malicious instruction execution, the method comprising: receiving an instruction for a graphics processing unit from a process; placing the instruction in a target list in response to the receiving the instruction; receiving a notification that the instruction caused a problem with the GPU; moving the instruction from the target list to a black list in response to receiving the notification; placing an identifier of the process in the black list in response to the notification; and restricting access of the process to the GPU in response to the identifier of the process being on the black list, wherein the restricting comprises preventing the instruction from executing on the GPU. receiving an instruction for a graphics processing unit from a process; placing the instruction in a target list in response to the receiving the instruction; receiving a notification that the instruction caused a problem with the GPU; moving the instruction from the target list to a black list in response to receiving the notification; placing an identifier of the process in the black list in response to the notification; and restricting access of the process to the GPU in response to the identifier of the process being on the black list, wherein the restricting comprises preventing the instruction from executing on the GPU.
A method of operating an amplifier to recover stored power from an antenna having a short electrical length compared to the transmitted wavelength of a transmitted signal, the method comprising: determining the instantaneous impedance state of the antenna receiving the transmitted signal, wherein the instantaneous impedance is the ratio of voltage to current at one instant in time, and wherein the instantaneous impedance varies throughout a pulse from a large level initially to close to the steady state base impedance near the pulse peak and finally becoming negative during the pulse tail; enabling (918, 920) an amplifier to a driving state when the instantaneous impedance state of the antenna is positive to modulate the signal going to the antenna; enabling (926, 928, 930) the amplifier to a damping state when the instantaneous impedance state of the antenna is negative, wherein the damping state provides current from the antenna to charge a direct current power source from power stored in the antenna. determining the instantaneous impedance state of the antenna receiving the transmitted signal, wherein the instantaneous impedance is the ratio of voltage to current at one instant in time, and wherein the instantaneous impedance varies throughout a pulse from a large level initially to close to the steady state base impedance near the pulse peak and finally becoming negative during the pulse tail; enabling (918, 920) an amplifier to a driving state when the instantaneous impedance state of the antenna is positive to modulate the signal going to the antenna; enabling (926, 928, 930) the amplifier to a damping state when the instantaneous impedance state of the antenna is negative, wherein the damping state provides current from the antenna to charge a direct current power source from power stored in the antenna.
Hoist point anchor comprising a base, wherein the base has a contact surface for contacting a flat ceiling and wherein the base has a plurality of anchor holes, emerging at the contact surface, for receiving anchor bolts for anchoring the base to the ceiling, and a wire rope forming a wire rope loop for attaching a hook, wherein the wire rope loop is attached to the base, and wherein the wire rope has a first end region and, opposite the first end region, a second end region, characterized in that - the base passes through the wire rope loop, and that - the first end region of the wire rope is arranged parallel to the contact surface and the second end region of the wire rope is arranged parallel to the contact surface. a base, wherein the base has a contact surface for contacting a flat ceiling and wherein the base has a plurality of anchor holes, emerging at the contact surface, for receiving anchor bolts for anchoring the base to the ceiling, and a wire rope forming a wire rope loop for attaching a hook, wherein the wire rope loop is attached to the base, and wherein the wire rope has a first end region and, opposite the first end region, a second end region, characterized in that - the base passes through the wire rope loop, and that - the first end region of the wire rope is arranged parallel to the contact surface and the second end region of the wire rope is arranged parallel to the contact surface.
Metering device for conveying highly viscous media from a container, comprising a metering unit for metering the medium; and a self-priming supply unit, constructively connected to the metering unit, for suctioning the medium and for supplying the medium to the metering unit; and having a component of the container which connects the supply unit and the metering unit to the container, wherein the supply unit is formed by a screw pump, and the metering unit is formed by a gear pump, characterized in that the screw pump is formed by a worm which rotates in a tube and is aligned so as to be perpendicular to the surface of the medium, and in that the component of the container is configured as a cover, and in that the worm penetrates the cover.
A memory test method, executed by a memory test apparatus, comprising: testing a second memory to acquire defect information of the second memory; storing the defect information of the second memory in the memory test apparatus; acquiring repair information of the second memory according to the defect information of the second memory; storing the repair information of the second memory in the memory test apparatus; repairing the second memory according to the repair information of the second memory in the memory test apparatus, wherein no data is currently stored in the repaired second memory; testing a first memory to acquire defect information of the first memory, and storing the defect information of the first memory in the second memory; acquiring repair information of the first memory according to the defect information of the first memory; storing the repair information of the first memory in the second memory; reading the repair information of the first memory from the second memory (S1040, S1210); and repairing the first memory according to the repair information of the first memory (S1050, S1220); wherein the second memory comprises a DRAM chip, and the first memory comprises one or more DRAM chips. testing a second memory to acquire defect information of the second memory; storing the defect information of the second memory in the memory test apparatus; acquiring repair information of the second memory according to the defect information of the second memory; storing the repair information of the second memory in the memory test apparatus; repairing the second memory according to the repair information of the second memory in the memory test apparatus, wherein no data is currently stored in the repaired second memory; testing a first memory to acquire defect information of the first memory, and storing the defect information of the first memory in the second memory; acquiring repair information of the first memory according to the defect information of the first memory; storing the repair information of the first memory in the second memory; reading the repair information of the first memory from the second memory (S1040, S1210); and repairing the first memory according to the repair information of the first memory (S1050, S1220); wherein the second memory comprises a DRAM chip, and the first memory comprises one or more DRAM chips.
A polymer comprising a phenol compound according to Formula: wherein: R 1 is selected from the group consisting of, optionally substituted, 2-pyridyl, 3-pyridiyl and 4-pyridyl groups, wherein R 1 is at position 2 or 3 of the phenol ring; R 2 is selected from the group consisting of, optionally substituted, 2-pyridyl, 3-pyridiyl, 4-pyridyl and phenyl groups, wherein R 2 is at position 5 or 6 of the phenol ring; and the phenol ring is optionally substituted at one or two positions, independently selected from positions 2, 3, 5 and 6, with a halogen atom or a with an optionally substituted C 6 - C 12 aryl group or an optionally substituted C 1 - C 10 alkyl group. R 1 is selected from the group consisting of, optionally substituted, 2-pyridyl, 3-pyridiyl and 4-pyridyl groups, wherein R 1 is at position 2 or 3 of the phenol ring; R 2 is selected from the group consisting of, optionally substituted, 2-pyridyl, 3-pyridiyl, 4-pyridyl and phenyl groups, wherein R 2 is at position 5 or 6 of the phenol ring; and the phenol ring is optionally substituted at one or two positions, independently selected from positions 2, 3, 5 and 6, with a halogen atom or a with an optionally substituted C 6 - C 12 aryl group or an optionally substituted C 1 - C 10 alkyl group.
Method for operating an electronic module comprising at least three semiconductor elements (S1 to S6), wherein, in the event of a defect in one of the semiconductor elements (S1 to S6), a current is passed via the defective semiconductor element (S1 to S6) by selectively activating at least two of the remaining semiconductor elements (S1 to S6) in order to destroy or open-circuit the defective semiconductor element (S1 to S6) or a weak point associated therewith, wherein this current is distributed between the selectively activated semiconductor elements (S1 to S6), wherein said electronic module comprises at least six semiconductor elements (S1 to S6) disposed in three half-bridges (HB1 to HB3), each having an upper branch and a lower branch characterised in that in the event of a defect in one of the semiconductor elements (S1, S3, S5) in the upper branch in one of the half-bridges (HB1 to HB3), the two semiconductor elements (S1, S3, S5) in the upper branch of the other two half-bridges (HB1 to HB3) are selectively activated in order to destroy or open-circuit the defective semiconductor element (S1, S3, S5) or the weak point associated therewith, wherein, if one of the semiconductor elements (S2, S4, S6) in the lower branch in one of the half-bridges (HB1 to HB3) is defective, the two semiconductor elements (S2, S4, S6) in the lower branch of the other two half-bridges (HB1 to HB3) are selectively activated in order to destroy or open-circuit the defective semiconductor element (S2, S4, S6) or the weak point associated therewith. in the event of a defect in one of the semiconductor elements (S1, S3, S5) in the upper branch in one of the half-bridges (HB1 to HB3), the two semiconductor elements (S1, S3, S5) in the upper branch of the other two half-bridges (HB1 to HB3) are selectively activated in order to destroy or open-circuit the defective semiconductor element (S1, S3, S5) or the weak point associated therewith, wherein, if one of the semiconductor elements (S2, S4, S6) in the lower branch in one of the half-bridges (HB1 to HB3) is defective, the two semiconductor elements (S2, S4, S6) in the lower branch of the other two half-bridges (HB1 to HB3) are selectively activated in order to destroy or open-circuit the defective semiconductor element (S2, S4, S6) or the weak point associated therewith.
A well system including: A wellhead apparatus, wherein: the wellhead apparatus defines a first gas conduit including a bottom end in gaseous communication with subterranean gas exiting a well bore, and a top end distal the bottom end; the wellhead apparatus includes a wellhead housing at the first gas conduit bottom end, wherein the wellhead housing includes at least one wellhead housing outlet, wherein the portion of the first gas conduit defined by the wellhead housing has a second end distal the first gas conduit bottom end, and wherein the at least one wellhead housing outlet is in gaseous communication with the first gas conduit intermediate said bottom end and said second end; and the wellhead apparatus includes at least one upper outlet in gaseous communication with the first gas conduit intermediate the at least one wellhead housing outlet and the top end; characterized in that: - the first gas conduit is open to the atmosphere; and - the well system includes a suction source in gaseous communication with the at least one wellhead housing outlet and the at least one upper outlet for applying suction to the at least one wellhead housing outlet and/or the at least one upper outlet to divert the flow of subterranean gas within the first gas conduit to the at least one wellhead housing outlet and/or the at least one upper outlet. the wellhead apparatus defines a first gas conduit including a bottom end in gaseous communication with subterranean gas exiting a well bore, and a top end distal the bottom end; the wellhead apparatus includes a wellhead housing at the first gas conduit bottom end, wherein the wellhead housing includes at least one wellhead housing outlet, wherein the portion of the first gas conduit defined by the wellhead housing has a second end distal the first gas conduit bottom end, and wherein the at least one wellhead housing outlet is in gaseous communication with the first gas conduit intermediate said bottom end and said second end; and the wellhead apparatus includes at least one upper outlet in gaseous communication with the first gas conduit intermediate the at least one wellhead housing outlet and the top end; - the first gas conduit is open to the atmosphere; and - the well system includes a suction source in gaseous communication with the at least one wellhead housing outlet and the at least one upper outlet for applying suction to the at least one wellhead housing outlet and/or the at least one upper outlet to divert the flow of subterranean gas within the first gas conduit to the at least one wellhead housing outlet and/or the at least one upper outlet.
A pre-form for a security document comprising at least a bottom layer, a central layer and a top layer, characterized in that: said central layer comprises one or more insert inlays (151, 152) disposed between a first corner and a second corner of a first side of said central layer so as to form a color-coded pattern along a direction extending between said first corner and said second corner, wherein said one or more insert inlays (151, 152) comprise a light guide material that is configured to interact with input light entering through at least one window (125, 131) of said pre-form and exiting from said one or more insert inlays (151, 152), so that said color-coded pattern is modified by the interaction between a predefined input light and said light guide material. said central layer comprises one or more insert inlays (151, 152) disposed between a first corner and a second corner of a first side of said central layer so as to form a color-coded pattern along a direction extending between said first corner and said second corner, wherein said one or more insert inlays (151, 152) comprise a light guide material that is configured to interact with input light entering through at least one window (125, 131) of said pre-form and exiting from said one or more insert inlays (151, 152), so that said color-coded pattern is modified by the interaction between a predefined input light and said light guide material.
A method of manufacturing a vapor cell (100, 200), the method comprising: obtaining a dielectric body (102, 202) comprising: a surface that defines an opening to a cavity (110, 204) in the dielectric body (102, 202), and a plurality of holes (112, 222) between the cavity (110, 204) and a side of the dielectric body (102, 202), the plurality of holes is separated from the cavity (110, 204) by a solid portion of the dielectric body (102, 202) and configured to define a metamaterial wall of the dielectric body (102, 202); obtaining an optical window (104, 214) that comprises a surface; disposing a vapor or a source of the vapor into the cavity (110, 204); and bonding the surface of the optical window (104, 214) to the surface of the dielectric body (102, 202) to form a seal around the opening to the cavity (110, 204); wherein the vapor cell (100, 200), when manufactured, is configured to detect a target electromagnetic radiation; and wherein each of the plurality of holes (112, 222) that define the metamaterial wall has a largest dimension no greater than a wavelength of the target electromagnetic radiation. obtaining a dielectric body (102, 202) comprising: a surface that defines an opening to a cavity (110, 204) in the dielectric body (102, 202), and a plurality of holes (112, 222) between the cavity (110, 204) and a side of the dielectric body (102, 202), the plurality of holes is separated from the cavity (110, 204) by a solid portion of the dielectric body (102, 202) and configured to define a metamaterial wall of the dielectric body (102, 202); a surface that defines an opening to a cavity (110, 204) in the dielectric body (102, 202), and a plurality of holes (112, 222) between the cavity (110, 204) and a side of the dielectric body (102, 202), the plurality of holes is separated from the cavity (110, 204) by a solid portion of the dielectric body (102, 202) and configured to define a metamaterial wall of the dielectric body (102, 202); obtaining an optical window (104, 214) that comprises a surface; disposing a vapor or a source of the vapor into the cavity (110, 204); and bonding the surface of the optical window (104, 214) to the surface of the dielectric body (102, 202) to form a seal around the opening to the cavity (110, 204); wherein the vapor cell (100, 200), when manufactured, is configured to detect a target electromagnetic radiation; and wherein each of the plurality of holes (112, 222) that define the metamaterial wall has a largest dimension no greater than a wavelength of the target electromagnetic radiation.
Electromagnetic valve having a valve housing, having at least one valve opening with a valve seat, and having a magnetic circuit with an electric drive coil and a magnetic yoke with a longitudinal centre axis, and having a metallic plate armature which interacts with the yoke and has an armature disc which is mounted movably in relation to the yoke, wherein the armature disc lies sealingly with a sealing surface against the valve seat in a first switching position of the valve and opens up the valve seat in a second switching position of the valve, wherein the valve seat is formed on a valve component, and the valve component has at least the one valve opening, and the valve opening lies at a radial distance (r) from the longitudinal centre axis, and in that the valve seat of the valve opening, which valve seat corresponds with direct body contact with the sealing surface of the armature disc of the plate armature, is composed of metal, characterized in that the valve component is designed substantially in the shape of a circular disc in the form of an annular element, has a central opening formed concentrically with respect to the longitudinal centre axis, and contains at least one valve opening surrounding a valve seat, and in that the valve component is arranged on the side of the yoke facing away from a base portion, wherein a first end face of the ring element lies facing the yoke.
A diagnostic method of a ventilation assembly comprising at least one fan, a discharge conduit, a conduit network comprising at least two conduits each comprising at least one air extraction vent and/or one air blowing vent, at least one damper positioned in each conduit, a control unit adapted to control said damper, characterized in that the diagnostic method is carried out at least at one conduit and comprises the following successive steps: - step A: providing at least one measuring member designed to measure the airflow rate at the inlet or at the outlet of the damper in each conduit, said measuring member being controlled by the control unit, - step B: closing the vent(s) of the conduit to be tested, - step C: operating the fan at a determined operating pressure, - step D: measuring the airflow rate of the conduit via the measuring member, - step E: determining the actual head loss of the damper, - step F: determining the actual pressure of the conduit by subtracting the actual head loss of the damper from the determined operating pressure applied at the fan, - step G: determining the leakage rate value of the conduit depending on the actual pressure of the conduit determined in step F and on the airflow rate of the conduit measured in step D. - step A: providing at least one measuring member designed to measure the airflow rate at the inlet or at the outlet of the damper in each conduit, said measuring member being controlled by the control unit, - step B: closing the vent(s) of the conduit to be tested, - step C: operating the fan at a determined operating pressure, - step D: measuring the airflow rate of the conduit via the measuring member, - step E: determining the actual head loss of the damper, - step F: determining the actual pressure of the conduit by subtracting the actual head loss of the damper from the determined operating pressure applied at the fan, - step G: determining the leakage rate value of the conduit depending on the actual pressure of the conduit determined in step F and on the airflow rate of the conduit measured in step D.