mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a computer system communicably coupled to a wireless local area network, the computer system comprising a wireless local area network access point, and the computer system being configured to automatically send digital media content via the wireless local area network access point to an automotive storage and playback device including a wireless transceiver when the automotive storage and playback device is within range of the wireless local area network; and wherein the computer system is configured to automatically obtain and store the digital media content at scheduled times from one or more digital media content servers via a wide area network based on user defined preferences directly input into and stored on the computer system. a computer system communicably coupled to a wireless local area network, the computer system comprising a wireless local area network access point, and the computer system being configured to automatically send digital media content via the wireless local area network access point to an automotive storage and playback device including a wireless transceiver when the automotive storage and playback device is within range of the wireless local area network; and wherein the computer system is configured to automatically obtain and store the digital media content at scheduled times from one or more digital media content servers via a wide area network based on user defined preferences directly input into and stored on the computer system.
A system comprising: a light source configured to emit excitation light at an excitation wavelength; a heatsink comprising a thermal conductivity in a range of about 50 to about 600 W/mK; a wavelength conversion material located on the heatsink, the wavelength conversion material comprising a relative wavelength conversion area of unity divided into an array of spots, a number of the spots in a range of 4 to 12, the wavelength conversion material configured to emit light at a wavelength greater than the excitation wavelength when irradiated by the excitation light, one or more of 5t≤d≤25t and 10t≤d≤20t used to select a centre-to-centre distance between the spots, where d is the centre-to-centre distance between the spots and t is a largest lateral dimension of the spots; and, an array of lenslets configured to: receive the excitation light from the light source and irradiate each of the spots of the wavelength conversion material with the excitation light, the lenslets in a one-to-one relationship with the number of spots; and collect the light emitted by the wavelength conversion material. a light source configured to emit excitation light at an excitation wavelength; a heatsink comprising a thermal conductivity in a range of about 50 to about 600 W/mK; a wavelength conversion material located on the heatsink, the wavelength conversion material comprising a relative wavelength conversion area of unity divided into an array of spots, a number of the spots in a range of 4 to 12, the wavelength conversion material configured to emit light at a wavelength greater than the excitation wavelength when irradiated by the excitation light, one or more of 5t≤d≤25t and 10t≤d≤20t used to select a centre-to-centre distance between the spots, where d is the centre-to-centre distance between the spots and t is a largest lateral dimension of the spots; and, an array of lenslets configured to: receive the excitation light from the light source and irradiate each of the spots of the wavelength conversion material with the excitation light, the lenslets in a one-to-one relationship with the number of spots; and collect the light emitted by the wavelength conversion material.
A method of controlling a temperature of a blade in a wind turbine system, comprising: setting a target temperature of the blade; inputting physical conditions of the blade and ambient conditions about the blade into a processor; outputting a minimum amount of energy to be provided to a heating element of the blade required to reach the target temperature by tailoring a function to be dependent on the physical conditions and ambient conditions such that the target temperature occurs at an end temperature line, where a the- heating curve for the blade plateaus; and adjusting the energy provided to the heating element to reach the target temperature. setting a target temperature of the blade; inputting physical conditions of the blade and ambient conditions about the blade into a processor; outputting a minimum amount of energy to be provided to a heating element of the blade required to reach the target temperature by tailoring a function to be dependent on the physical conditions and ambient conditions such that the target temperature occurs at an end temperature line, where a the- heating curve for the blade plateaus; and adjusting the energy provided to the heating element to reach the target temperature.
A network device (110, 120, 112, 114, 116, 118, 122, 124, 126, 128, 130, 132,150, 210, 220, 310, 320), comprising: a global position signal receiver configured to receive GPS signals and to determine a time reference based on the received GPS signals; a switching part configured to communicate transfer-of-synchronization packets with at least one other network device; an operative part configured to manage radio communication using an operative time reference; and a controller configured to switch the operative part between at least (i) a first mode, in which the operative part uses, as the operative time reference, the time reference determined by the GPS receiver and (ii) a second mode, in which the operative part uses the operative time reference determined using one or more imported time references, each of the imported time references being extracted from the transfer-of-synchronization packets communicated with a network device, the controller being configured to switch the operative part between the first mode and the second mode depending on a quality of the received GPS signals and a quality of the communication of the transfer-of-synchronization packets by the switching part from each of the at least one other network device, respectively. a global position signal receiver configured to receive GPS signals and to determine a time reference based on the received GPS signals; a switching part configured to communicate transfer-of-synchronization packets with at least one other network device; an operative part configured to manage radio communication using an operative time reference; and a controller configured to switch the operative part between at least (i) a first mode, in which the operative part uses, as the operative time reference, the time reference determined by the GPS receiver and (ii) a second mode, in which the operative part uses the operative time reference determined using one or more imported time references, each of the imported time references being extracted from the transfer-of-synchronization packets communicated with a network device, the controller being configured to switch the operative part between the first mode and the second mode depending on a quality of the received GPS signals and a quality of the communication of the transfer-of-synchronization packets by the switching part from each of the at least one other network device, respectively.
Method for introducing a plurality of tendons into a tower using a crane, comprising the steps of: a) providing the plurality of wound tendons in a storage area adjacent to the tower, b) picking up one of the tendons by means of a pick-up device of the crane, c) lifting the picked-up tendon to the top of the tower, d) introducing the tendon into the tower from above, e) lowering the pick-up device to the storage area, f) repeating steps b) to e), characterised in that the tendons, after being lifted to the top of the tower in step c) and before the tendon is introduced into the tower in step d), are brought into unwinding engagement with an unwinding device in step c1), which is fixedly arranged at said top of the tower at least for the duration of the introducing method, and in that steps d) and e) are carried out in a temporally overlapping, preferably substantially simultaneous, manner, meaning that the pick-up device is already being lowered back to the storage area while the tendon that has just been lifted to the top of the tower is introduced into the tower from above by means of the unwinding device. a) providing the plurality of wound tendons in a storage area adjacent to the tower, b) picking up one of the tendons by means of a pick-up device of the crane, c) lifting the picked-up tendon to the top of the tower, d) introducing the tendon into the tower from above, e) lowering the pick-up device to the storage area, f) repeating steps b) to e),
A process for the oligomerization of ethylene into alpha-olefins, comprising: - a step for oligomerization of the ethylene in a reaction section comprising a reactor, in the presence of a catalyst, and optionally a diluent, - a step for deactivation of the catalyst contained in the reaction effluent, - a step for evaporation of the products contained in the reaction effluent in order to separate them from the deactivated catalyst, carried out in an evaporation section, - a step for separation of the products contained in the reaction effluent in a separation section, said reactor being provided with at least one cooling loop (100a/b, 101ab, 102a/b), by means of which the reaction medium is caused to move through at least two switchable heat exchangers which are capable of being connected to at least one cooling loop in a manner such that when at least one heat exchanger is operatively connected to at least one cooling loop, the other disconnected heat exchanger undergoes a step for cleaning the polymer deposited in the disconnected heat exchanger by means of a cleaning device in which a solvent which is capable of cleaning said heat exchanger is caused to move in a loop, the cleaning device comprising: - a storage drum for the cleaning solvent, - a heat exchanger for heating the cleaning solvent to a temperature above 130°C in a manner such as to allow the polymer deposited in the disconnected heat exchanger to be dissolved; - a recirculation pump for moving the cleaning solvent in a loop in the cleaning device between the cleaning solvent storage drum, the heat exchanger for the cleaning solvent and the disconnected heat exchanger which is to be cleaned, in which at least a portion of the charged cleaning solvent (406, 407) is sent to the evaporation section as a mixture with a portion of the reaction effluent either upstream or downstream of a heat exchanger of said evaporation section when this heat exchanger is present. - a step for oligomerization of the ethylene in a reaction section comprising a reactor, in the presence of a catalyst, and optionally a diluent, - a step for deactivation of the catalyst contained in the reaction effluent, - a step for evaporation of the products contained in the reaction effluent in order to separate them from the deactivated catalyst, carried out in an evaporation section, - a step for separation of the products contained in the reaction effluent in a separation section, - a storage drum for the cleaning solvent, - a heat exchanger for heating the cleaning solvent to a temperature above 130°C in a manner such as to allow the polymer deposited in the disconnected heat exchanger to be dissolved; - a recirculation pump for moving the cleaning solvent in a loop in the cleaning device between the cleaning solvent storage drum, the heat exchanger for the cleaning solvent and the disconnected heat exchanger which is to be cleaned,
Method for correcting an impulse response of a multipath propagation channel, characterised in that it comprises at least one iteration of the following steps: - obtaining a current impulse response of said propagation channel; - estimating a temporal shift between said current impulse response and a reference impulse response of said propagation channel; and - correcting said current impulse response based on at least said temporal shift, delivering a corrected impulse response. - obtaining a current impulse response of said propagation channel; - estimating a temporal shift between said current impulse response and a reference impulse response of said propagation channel; and - correcting said current impulse response based on at least said temporal shift, delivering a corrected impulse response.
Method for the production of a mixture of the compounds of Formulae la, Ib and/or Ic with a molar ratio of the sum of the compounds of Formula la and Ib to the compound of Formula Ic Ia + Ib / Ic between 10: 1 and 1: 1, in which a completely stereoisomer-pure compound of Formula la, Ib or Ic, or a mixture of two or three of the compounds, wherein in case that a mixture of two or three of the compounds are used, the mixture which is used has a changed composition, wherein respectively in the compounds of Formulae Ia, Ib and Ic, R stands for a linear or branched aliphatic alkyl radical with 1 to 6 C-atoms, is converted with a catalyst or a mixture of at least two catalysts, wherein the catalyst is selected from the group consisting of a) metallic salts and/or organometallic compounds of Na, K, Mg, Ca, Fe, Ti, Zn, Sn, Sb and/or b) nitrogen-containing or phosphorous-containing organic compounds, wherein the conversion is implemented at temperatures between 80 and 160 °C. a) metallic salts and/or organometallic compounds of Na, K, Mg, Ca, Fe, Ti, Zn, Sn, Sb and/or b) nitrogen-containing or phosphorous-containing organic compounds,
An uplink transmission feedback method, wherein the method comprises: receiving, by a base station, uplink data sent by a terminal on a first resource of a Physical Uplink Shared Channel, PUSCH; generating, by the base station, feedback information of the uplink data, the feedback information comprising Acknowledgement feedback, ACK, or Negative Acknowledgement feedback, NACK; wherein the NACK is configured to instruct the terminal to retransmit the uplink data; and sending, by the base station, the feedback information to the terminal using a first Physical Downlink Control Channel, PDCCH, format on a second resource of a PDCCH; wherein the first PDCCH format occupies X symbols on the PDCCH, where X is a specified value or any value in 1, 2 and 3; wherein a number of symbols between a first symbol of the second resource and a last symbol of the first resource is not greater than K; where K is a specified value or any value in 0, 1, 2, and 3. receiving, by a base station, uplink data sent by a terminal on a first resource of a Physical Uplink Shared Channel, PUSCH; generating, by the base station, feedback information of the uplink data, the feedback information comprising Acknowledgement feedback, ACK, or Negative Acknowledgement feedback, NACK; wherein the NACK is configured to instruct the terminal to retransmit the uplink data; and sending, by the base station, the feedback information to the terminal using a first Physical Downlink Control Channel, PDCCH, format on a second resource of a PDCCH; wherein the first PDCCH format occupies X symbols on the PDCCH, where X is a specified value or any value in 1, 2 and 3; wherein a number of symbols between a first symbol of the second resource and a last symbol of the first resource is not greater than K; where K is a specified value or any value in 0, 1, 2, and 3.
Method for controlling a technical process with a controller, which produces a correcting variable, wherein a controlled variable is approximately a step function on the basis of the correcting variable, in the case of which the controlled variable - in a first section of a range of values of the correcting variable forms a first plateau with virtually identical values, - in a second section of the range of values of the correcting variable has a steep transition from the first plateau to a second plateau with likewise virtually identical values; and - in a third section of the range of values of the correcting variable forms the second plateau, characterized in that a) the step function is approximated by an approximation function (f) in the form of a sigmoid function; b) an inverse function (f -1) is formed for the approximation function; c) the controlled variable and a reference variable, which represents a desired value for the controlled variable, are transformed by means of the inverse function into an auxiliary controlled variable (R h) and into an auxiliary reference variable (F h); and d) the auxiliary controlled variable (R h) and the auxiliary reference variable (F h) serve the controller as a basis for determining the correcting variable. - in a first section of a range of values of the correcting variable forms a first plateau with virtually identical values, - in a second section of the range of values of the correcting variable has a steep transition from the first plateau to a second plateau with likewise virtually identical values; and - in a third section of the range of values of the correcting variable forms the second plateau, a) the step function is approximated by an approximation function (f) in the form of a sigmoid function; b) an inverse function (f -1) is formed for the approximation function; c) the controlled variable and a reference variable, which represents a desired value for the controlled variable, are transformed by means of the inverse function into an auxiliary controlled variable (R h) and into an auxiliary reference variable (F h); and d) the auxiliary controlled variable (R h) and the auxiliary reference variable (F h) serve the controller as a basis for determining the correcting variable.
A method for predicting a response to and/or benefit of taxane/anthracycline-containing chemotherapy, including neoadjuvant chemotherapy, in a patient suffering from or at risk of developing recurrent breast cancer, said method comprising the steps of: (a) determining in a breast tumor sample from said patient the gene expression levels of at least 3 of the following genes: BIRC5, DHCR7, AZGP1, RBBP8, IL6ST, and MGP, indicative of a response to chemotherapy for a tumor, and (b) mathematically combining expression level values for the genes of the said set which values were determined in the tumor sample to yield a combined score, wherein said combined score is predicting said response and/or benefit of chemotherapy. (a) determining in a breast tumor sample from said patient the gene expression levels of at least 3 of the following genes: BIRC5, DHCR7, AZGP1, RBBP8, IL6ST, and MGP, indicative of a response to chemotherapy for a tumor, and (b) mathematically combining expression level values for the genes of the said set which values were determined in the tumor sample to yield a combined score, wherein said combined score is predicting said response and/or benefit of chemotherapy.
A method of employing an eddy current sensor to perform an inspection on a tube from among a plurality of tubes of a steam generator of a nuclear installation, the eddy current sensor being structured to output an eddy current signal, the tube having a first straight portion, a second straight portion, and a bend situated between the first and second straight portions, the method comprising: accelerating the eddy current sensor to be moving at a first velocity within the first straight portion in a direction toward the bend; and decelerating the eddy current sensor to be moving at a second velocity less that the first velocity within the first straight portion in a direction toward the bend as the eddy current sensor reaches the bend; and moving the eddy current sensor at the second velocity through at least a portion of the bend. accelerating the eddy current sensor to be moving at a first velocity within the first straight portion in a direction toward the bend; and decelerating the eddy current sensor to be moving at a second velocity less that the first velocity within the first straight portion in a direction toward the bend as the eddy current sensor reaches the bend; and moving the eddy current sensor at the second velocity through at least a portion of the bend.
A method for forming a predefined formation of a plurality of bundles and/or piece goods on a conveyor belt for the purpose of a palletising performed downstream, in which method - a plurality of bundles and/or piece goods are guided in the first conveying direction on at least one infeed conveyor belt toward at least one manipulator, - are deflected and passed on with regard to the predefined formation to at least one continuously operated outfeed conveyor belt by means of the at least one manipulator, - are removed in the predefined formation via the at least one continuously operated outfeed conveyor belt, wherein the predefined formation consists of bundles and/or piece goods that are arranged next to and behind one another, characterised in that - the outfeed conveyor belt has a second conveying direction, which runs substantially perpendicular to the first conveying direction, wherein - the at least one manipulator has its own horizontal conveying device, which is arranged between the immediately subsequent infeed conveyor belt and the immediately upstream outfeed conveyor belt in alignment in the first conveying direction with the infeed conveyor belt and along a first end of the outfeed conveyor belt, wherein the own horizontal conveying device, the immediately subsequent infeed conveyor belt and the immediately upstream outfeed conveyor belt are continuously operated, and wherein - a gripping device of the manipulator receives bundles from its own horizontal conveying device within a working area, deflects them and passes them on with regard to the predefined formation to the outfeed conveyor belt. - a plurality of bundles and/or piece goods are guided in the first conveying direction on at least one infeed conveyor belt toward at least one manipulator, - are deflected and passed on with regard to the predefined formation to at least one continuously operated outfeed conveyor belt by means of the at least one manipulator, - are removed in the predefined formation via the at least one continuously operated outfeed conveyor belt, wherein the predefined formation consists of bundles and/or piece goods that are arranged next to and behind one another, characterised in that - the outfeed conveyor belt has a second conveying direction, which runs substantially perpendicular to the first conveying direction, wherein - the at least one manipulator has its own horizontal conveying device, which is arranged between the immediately subsequent infeed conveyor belt and the immediately upstream outfeed conveyor belt in alignment in the first conveying direction with the infeed conveyor belt and along a first end of the outfeed conveyor belt, wherein the own horizontal conveying device, the immediately subsequent infeed conveyor belt and the immediately upstream outfeed conveyor belt are continuously operated, and wherein - a gripping device of the manipulator receives bundles from its own horizontal conveying device within a working area, deflects them and passes them on with regard to the predefined formation to the outfeed conveyor belt.
A textile product attenuating electromagnetic field, in a form of a substrate with a sputtered metal coating, characterized in that the substrate has a deposited coating consisting of at least one layer (L 1, L 2, L 3, L 4) of Zn-Bi composite, wherein said layer has a thickness below few micrometers [μm], whereby the layers (L 1, L 2, L 3, L 4) are deposited on the substrate alternately, and the number of deposited layers (L 1, L 2, L 3, L 4) depends on the coefficient of shielding efficiency of electromagnetic field by the textile product, whereby the substrate is made of woven or nonwoven fabric of polypropylene, polyester, polyolefine, polyamide, aramid or polyacrylonitrile.