mhurhangee/ep-ind-claims huggingface dataset:
A method for transmission by a time division duplexing device, comprising: receiving a communication on a frequency at a first antenna having a first receive condition and a second antenna having a second receive condition; determining a first transmit condition for the first antenna based on the first receive condition and a second transmit condition for the second antenna based on the second receive condition; comparing the first transmit condition and the second transmit condition; selecting one of the first antenna and the second antenna based on the comparing; the method being characterized by further comprising calculating a difference between a first antenna receive power and a second antenna receive power; adjusting a transmission power of the selected one of the first antenna and the second antenna based on the calculated difference, and sending a transmission on the frequency from the selected one of the first antenna and the second antenna, wherein the sending comprises sending the transmission using the adjusted transmission power, wherein the sending comprises sending the transmission using the adjusted transmission power if the selected one of the first antenna and the second antenna is different than the selected antenna for a previous transmission. receiving a communication on a frequency at a first antenna having a first receive condition and a second antenna having a second receive condition; determining a first transmit condition for the first antenna based on the first receive condition and a second transmit condition for the second antenna based on the second receive condition; comparing the first transmit condition and the second transmit condition; selecting one of the first antenna and the second antenna based on the comparing; the method being characterized by further comprising calculating a difference between a first antenna receive power and a second antenna receive power; adjusting a transmission power of the selected one of the first antenna and the second antenna based on the calculated difference, and sending a transmission on the frequency from the selected one of the first antenna and the second antenna, wherein the sending comprises sending the transmission using the adjusted transmission power, wherein the sending comprises sending the transmission using the adjusted transmission power if the selected one of the first antenna and the second antenna is different than the selected antenna for a previous transmission.
Method for the blow moulding of containers, in which a preform is moulded, after a thermal conditioning, into the container inside a blow mould by blow pressure action, and in which the blow mould is bracketed by a support (19, 20) of a blow station, and in which at least one mould element, in a closed state of the blow station and after a start of the blowing process, is being positioned directly in an internal space that is encased by the blow mould such that a container bubble formed from the preform is being moulded, characterised in that the pneumatic pressure for the actuator element is derived from a pressure for the tensioning of mould halves (5, 6) of the blow mould, in that the mould element is positioned by a lever-like actuation facility, and in that the actuation facility is swivelled with respect to a swivel axis by the actuator element.
A method for determining a hangover addition for a speech or audio codec, wherein for each frame a primary decision of voice activity is determined and based on whether or not a hangover addition of the primary decision is to be performed a final decision of voice activity is determined, the method comprising: - determining a short term activity measure based on a number of active frames in a memory of latest N_st primary decisions; - determining a long term activity measure based on a number of active frames in a memory of latest N_It final decisions; - comparing the short term activity measure with a first threshold and the long term activity measure with a second threshold; - creating an alternative final decision for adjusting the hangover addition by a predetermined number of hangover frames if at least one of the first and second threshold is exceeded. - determining a short term activity measure based on a number of active frames in a memory of latest N_st primary decisions; - determining a long term activity measure based on a number of active frames in a memory of latest N_It final decisions; - comparing the short term activity measure with a first threshold and the long term activity measure with a second threshold; - creating an alternative final decision for adjusting the hangover addition by a predetermined number of hangover frames if at least one of the first and second threshold is exceeded.
Sweeping vehicle, comprising a disc brush for sweeping dirt off a ground surface to be cleaned, the disc brush having a brush disc with brushes held thereon and being rotationally drivable about an axis of rotation, and comprising a holding device for holding the disc brush, the holding device having a holding part and a holding arm pivotably connected to the holding part, the holding device being held on the sweeping vehicle by way of the holding part, and the disc brush being held on the holding arm, and comprising an adjusting device having an adjustment member of variable length, which engages the holding arm, the holding arm being pivotable relative to the holding part in dependence upon a change in length of the adjustment member for lowering and lifting the disc brush, characterized in that the holding device comprises a brush carrier which is pivotably mounted on the holding arm and on which the disc brush is held, and in that the sweeping vehicle comprises a coupling device for coupling the brush carrier to the adjusting device, the brush carrier being pivotable relative to the holding arm in dependence upon a change in length of the adjustment member for pivoting the disc brush about a pivot axis aligned at a slant to the axis of rotation.
A control method for information display, comprising: adjusting an information structure of display information on a display unit in response to a shift of a user's line of sight on the display unit while driving a vehicle, characterized in that: information is displayed in an area on the display unit via a multi-level interface, the multi-level interface comprises an upper-level interface for displaying a first portion of the information by default and a lower-level interface for displaying a second portion of the information; and said adjusting the information structure of display information on the display unit in response to a shift of a user's line of sight on the display unit comprises: opening the lower-level interface of the multi-level interface and displaying the second portion of the information when a retention time of the user's line of sight in the area exceeds a preset length of time. adjusting an information structure of display information on a display unit in response to a shift of a user's line of sight on the display unit while driving a vehicle, characterized in that: information is displayed in an area on the display unit via a multi-level interface, the multi-level interface comprises an upper-level interface for displaying a first portion of the information by default and a lower-level interface for displaying a second portion of the information; and said adjusting the information structure of display information on the display unit in response to a shift of a user's line of sight on the display unit comprises: opening the lower-level interface of the multi-level interface and displaying the second portion of the information when a retention time of the user's line of sight in the area exceeds a preset length of time. information is displayed in an area on the display unit via a multi-level interface, the multi-level interface comprises an upper-level interface for displaying a first portion of the information by default and a lower-level interface for displaying a second portion of the information; and said adjusting the information structure of display information on the display unit in response to a shift of a user's line of sight on the display unit comprises: opening the lower-level interface of the multi-level interface and displaying the second portion of the information when a retention time of the user's line of sight in the area exceeds a preset length of time.
A pressurizing mask for supporting a combination of a top cap assembly and an electrode assembly, comprising: an external circumference forming a circle on a plane view, wherein a welding portion for exposing an electrode tab is formed at a biased position with respect to a center thereof, and an indent portion into which the electrode tab is inserted is formed in a peripheral portion of the welding portion, an indent portion is formed on a first side to traverse the welding portion from the external circumference, the electrode tab is exposed to an outside through the welding portion on a second side that is an opposite side of the first side when an electrode tab is mounted to the indent portion, the first side is configured to contact a current interrupt device of the top cap assembly, and when a pressure is applied in a direction of the first side from the second side, the current interrupt device and the electrode tab are configured to be pressurized to support welding between the current interrupt device and the electrode tab. an external circumference forming a circle on a plane view, wherein a welding portion for exposing an electrode tab is formed at a biased position with respect to a center thereof, and an indent portion into which the electrode tab is inserted is formed in a peripheral portion of the welding portion, an indent portion is formed on a first side to traverse the welding portion from the external circumference, the electrode tab is exposed to an outside through the welding portion on a second side that is an opposite side of the first side when an electrode tab is mounted to the indent portion, the first side is configured to contact a current interrupt device of the top cap assembly, and when a pressure is applied in a direction of the first side from the second side, the current interrupt device and the electrode tab are configured to be pressurized to support welding between the current interrupt device and the electrode tab.
A method for reading an ultra-high frequency RFID tag on or in an object to be scanned, the method comprising the steps of: ∘ providing an ultra-high frequency RFID scanning system comprising: - an ultra-high frequency RFID reader/writer and an antenna group, - the antenna group comprises at least two antennas, - the at least two antennas being distributed around the object to be scanned, - the object to be scanned comprising said RFID tags, and - each of the at least two antennas each being connected to the ultra-high frequency RFID reader/writer through a feeder; ∘ setting a scanning set A for the number of RFID tags; ∘ continuously scanning the object in scanning cycles by the ultra-high frequency RFID scanning system; ∘ adding new data in each scanning cycle to a scanning set A; ∘ if no new data is added to the scanning set A, counting of consecutive scanning cycles is started; ∘ if new data is added to the scanning set A at any time in N consecutive scanning cycles, counting of consecutive scanning cycles is restarted and continued until no new data is added to the scanning set A for said N consecutive scanning cycles; ∘ if no new data is added to the scanning set A for said N consecutive scanning cycles, the ultra-high frequency RFID scanning system is considered to have read all the RFID tags in the scanned object. ∘ providing an ultra-high frequency RFID scanning system comprising: - an ultra-high frequency RFID reader/writer and an antenna group, - the antenna group comprises at least two antennas, - the at least two antennas being distributed around the object to be scanned, - the object to be scanned comprising said RFID tags, and - each of the at least two antennas each being connected to the ultra-high frequency RFID reader/writer through a feeder; - an ultra-high frequency RFID reader/writer and an antenna group, - the antenna group comprises at least two antennas, - the at least two antennas being distributed around the object to be scanned, - the object to be scanned comprising said RFID tags, and - each of the at least two antennas each being connected to the ultra-high frequency RFID reader/writer through a feeder; ∘ setting a scanning set A for the number of RFID tags; ∘ continuously scanning the object in scanning cycles by the ultra-high frequency RFID scanning system; ∘ adding new data in each scanning cycle to a scanning set A; ∘ if no new data is added to the scanning set A, counting of consecutive scanning cycles is started; ∘ if new data is added to the scanning set A at any time in N consecutive scanning cycles, counting of consecutive scanning cycles is restarted and continued until no new data is added to the scanning set A for said N consecutive scanning cycles; ∘ if no new data is added to the scanning set A for said N consecutive scanning cycles, the ultra-high frequency RFID scanning system is considered to have read all the RFID tags in the scanned object.
A working tool for a kitchen appliance, adapted to be rotationally driven, consisting of two or more blades for food processing, wherein at least one blade consists of the inside part of the blade and the outside part of the blade, and in which each inside part of the blade is in contact with a holder while extending in a plane substantially perpendicular to the rotation axis, and each outside part of the blade is in the vicinity of the wall of the processing vessel and extends in a plane substantially parallel to the rotation axis, wherein the working tool has two blades, characterized in that the one outside part of the blade is oriented in one direction in regard to the rotation plane of the inside part of the blade, while the other outside part is oriented in the opposite direction, wherein the outside parts of the blades of the working tool are sickle-shaped.
A process for the preparation of a pharmaceutical composition comprising an 18 F-labelled gas selected from the group consisting of 18 F-labelled sulphur hexafluoride (SF 6) and 18 F-labelled carbon tetrafluoride (CF 4), comprising the steps: a) Filling a target with a gas mixture comprising a fluorinated gas selected from the group consisting of sulphur hexafluoride (SF 6) and carbon tetrafluoride (CF 4); b) Irradiating the gas mixture of step a) with protons with energies from 0.1 to 50 MeV. a) Filling a target with a gas mixture comprising a fluorinated gas selected from the group consisting of sulphur hexafluoride (SF 6) and carbon tetrafluoride (CF 4); b) Irradiating the gas mixture of step a) with protons with energies from 0.1 to 50 MeV.
A process of forming a thin film photoactive layer of an optoelectronic device comprising: providing a substrate having a surface comprising or coated with a metal M selected from at least one of Pb, Sn, Ge, Ti, Bi, or In; and converting the metal surface or metal coating of the substrate to a perovskite layer comprising an organo-metal halide perovskite MAX, wherein the converting step comprises applying at least one perovskite precursor to the metal surface or metal coating of the substrate to form the perovskite layer, and wherein the perovskite precursor comprises at least one compound having the formula AX, or at least one reaction constituent for forming at least one compound having the formula AX, in which A comprises an ammonium group or other nitrogen containing organic cation and X is selected from at least one of F, Cl, Br or I. providing a substrate having a surface comprising or coated with a metal M selected from at least one of Pb, Sn, Ge, Ti, Bi, or In; and converting the metal surface or metal coating of the substrate to a perovskite layer comprising an organo-metal halide perovskite MAX, wherein the converting step comprises applying at least one perovskite precursor to the metal surface or metal coating of the substrate to form the perovskite layer, and wherein the perovskite precursor comprises at least one compound having the formula AX, or at least one reaction constituent for forming at least one compound having the formula AX, in which A comprises an ammonium group or other nitrogen containing organic cation and X is selected from at least one of F, Cl, Br or I.
A method for removing gas components SOx, NOx, and CO 2 together from flue gas, comprising the steps of: generating a superimposed DC time-varying pulsed wave by superimposing a direct current on a low frequency time-varying pulsating electromagnetic wave signal, wherein the superimposed DC time-varying pulsed wave comprises an AC driving signal with time-varying frequency riding on a DC output with a predefined DC bias voltage; providing a treatment medium comprising water; treating the treatment medium by subjecting the treatment medium to the generated superimposed DC time-varying pulsed wave so as to excite the treatment medium to cause a flow of ionic current having a DC component traveling in a pulsating and time-varying manner in the treatment medium and to induce vibration of electrons and molecules of the treatment medium; passing the thus treated treatment medium into a flue gas chamber containing the flue gas to affect the gas components and to convert the gas components respectively to one or more of sulphates, nitrogen, oxygen, bicarbonates, carbonates and carbon; and removing the converted gas components with used treatment medium or treated flue gas from the flue gas chamber. generating a superimposed DC time-varying pulsed wave by superimposing a direct current on a low frequency time-varying pulsating electromagnetic wave signal, wherein the superimposed DC time-varying pulsed wave comprises an AC driving signal with time-varying frequency riding on a DC output with a predefined DC bias voltage; providing a treatment medium comprising water; treating the treatment medium by subjecting the treatment medium to the generated superimposed DC time-varying pulsed wave so as to excite the treatment medium to cause a flow of ionic current having a DC component traveling in a pulsating and time-varying manner in the treatment medium and to induce vibration of electrons and molecules of the treatment medium; passing the thus treated treatment medium into a flue gas chamber containing the flue gas to affect the gas components and to convert the gas components respectively to one or more of sulphates, nitrogen, oxygen, bicarbonates, carbonates and carbon; and removing the converted gas components with used treatment medium or treated flue gas from the flue gas chamber.
A paper towel dispensing apparatus for dispensing paper towel from a roll (3, 5), the apparatus comprising: a rotatable support roller having an outer surface for supporting the towel to be dispensed; a cutter blade provided in the support roller for cutting said towel, the cutter blade being movable to a cutting position in which it extends beyond the outer surface of the support roller; a blade actuator for moving the cutter blade to said cutting position responsive to the support roller completing a plurality of revolutions; and a gear train for drivingly connecting the support roller to a central axle; wherein the blade actuator comprises at least one cam (51, 53) mounted on the central axle, and the cutter blade is provided with at least one cam follower (55, 59) for following said at least one cam (51, 53); the at least one cam (51, 53) and the at least one cam follower (55, 59) being provided inside the support roller. a rotatable support roller having an outer surface for supporting the towel to be dispensed; a cutter blade provided in the support roller for cutting said towel, the cutter blade being movable to a cutting position in which it extends beyond the outer surface of the support roller; a blade actuator for moving the cutter blade to said cutting position responsive to the support roller completing a plurality of revolutions; and a gear train for drivingly connecting the support roller to a central axle; wherein the blade actuator comprises at least one cam (51, 53) mounted on the central axle, and the cutter blade is provided with at least one cam follower (55, 59) for following said at least one cam (51, 53); the at least one cam (51, 53) and the at least one cam follower (55, 59) being provided inside the support roller.
A method for minimizing a voltage spike comprising the steps of: connecting a resistive clamp comprising multiple individually connectible resistive clamp circuits (300A, 300B, 300C) to a three phase power source when a voltage spike is detected; and disconnecting said resistive clamp from said three phase power source after at least a portion of said voltage spike is dissipated within said resistive clamp, wherein each resistive clamp circuit (300A, 300B, 300C) comprises a resistor bank (410A, 410B, 410C) and a set of triacs (310A, 312A, 314A, 310B, 312B, 314B, 310C, 312C, 314C), with a triac on each phase of the three phase power source, wherein said step of connecting said resistive clamp to said three phase voltage source comprises connecting each resistive clamp circuit (300A, 300B, 300C) of said resistive clamp to said three phase voltage source approximately simultaneously by sending a common activation signal to the plurality of sets of triacs (310A, 312A, 314A, 310B, 312B, 314B, 310C, 312C, 314C), thereby causing each of said plurality of sets of triacs to connect a corresponding resistive clamp circuit to said three phase voltage source, and wherein said step of disconnecting said resistive clamp from said three phase power source comprises disconnecting each resistive clamp circuit (300A, 300B, 300C) individually by removing said activation signal from each of said plurality of sets of triacs (310A, 312A, 314A, 310B, 312B, 314B, 310C, 312C, 314C) sequentially. connecting a resistive clamp comprising multiple individually connectible resistive clamp circuits (300A, 300B, 300C) to a three phase power source when a voltage spike is detected; and disconnecting said resistive clamp from said three phase power source after at least a portion of said voltage spike is dissipated within said resistive clamp, wherein each resistive clamp circuit (300A, 300B, 300C) comprises a resistor bank (410A, 410B, 410C) and a set of triacs (310A, 312A, 314A, 310B, 312B, 314B, 310C, 312C, 314C), with a triac on each phase of the three phase power source, wherein said step of connecting said resistive clamp to said three phase voltage source comprises connecting each resistive clamp circuit (300A, 300B, 300C) of said resistive clamp to said three phase voltage source approximately simultaneously by sending a common activation signal to the plurality of sets of triacs (310A, 312A, 314A, 310B, 312B, 314B, 310C, 312C, 314C), thereby causing each of said plurality of sets of triacs to connect a corresponding resistive clamp circuit to said three phase voltage source, and wherein said step of disconnecting said resistive clamp from said three phase power source comprises disconnecting each resistive clamp circuit (300A, 300B, 300C) individually by removing said activation signal from each of said plurality of sets of triacs (310A, 312A, 314A, 310B, 312B, 314B, 310C, 312C, 314C) sequentially.