mhurhangee/ep-ind-claims huggingface dataset:
A formulation for use in a method of treating and/or preventing skin cancer by applying the formulation to the skin, the formulation comprising (i) nanoparticles comprising a hydrophobic core comprising a hydrophobic, biodegradable polymer; and a shell comprising hyperbranched polyglycerol which is covalently bound to the hydrophobic, biodegradable polymer and is functionalized with an effective amount of reactive functional groups to adhere to skin, the reactive functional groups being selected from aldehydes, amines, oximes, O-substituted oximes, and combinations thereof; and (ii) one or more anti-cancer agents encapsulated within the nanoparticles and/or associated with the surface of the nanoparticles. (i) nanoparticles comprising a hydrophobic core comprising a hydrophobic, biodegradable polymer; and a shell comprising hyperbranched polyglycerol which is covalently bound to the hydrophobic, biodegradable polymer and is functionalized with an effective amount of reactive functional groups to adhere to skin, the reactive functional groups being selected from aldehydes, amines, oximes, O-substituted oximes, and combinations thereof; and a hydrophobic core comprising a hydrophobic, biodegradable polymer; and a shell comprising hyperbranched polyglycerol which is covalently bound to the hydrophobic, biodegradable polymer and is functionalized with an effective amount of reactive functional groups to adhere to skin, the reactive functional groups being selected from aldehydes, amines, oximes, O-substituted oximes, and combinations thereof; and (ii) one or more anti-cancer agents encapsulated within the nanoparticles and/or associated with the surface of the nanoparticles.
A method of wireless communication for radio resource management, RRM, performed by a user equipment, UE, comprising: determining a mobility prediction for the UE; determining one or more radio resource management, RRM, measurement parameters based at least in part on the mobility prediction, wherein the RRM measurement parameters comprise one or more of: a number of RRM measurements that are to be performed for a particular cell and/or for a particular frequency carrier in the particular cell, and a frequency or time duration between RRM measurements for the particular cell and/or for a particular frequency carrier in the particular cell; and performing one or more RRM measurements based at least in part on the one or more RRM measurement parameters. determining a mobility prediction for the UE; determining one or more radio resource management, RRM, measurement parameters based at least in part on the mobility prediction, wherein the RRM measurement parameters comprise one or more of: a number of RRM measurements that are to be performed for a particular cell and/or for a particular frequency carrier in the particular cell, and a frequency or time duration between RRM measurements for the particular cell and/or for a particular frequency carrier in the particular cell; and a number of RRM measurements that are to be performed for a particular cell and/or for a particular frequency carrier in the particular cell, and a frequency or time duration between RRM measurements for the particular cell and/or for a particular frequency carrier in the particular cell; and performing one or more RRM measurements based at least in part on the one or more RRM measurement parameters.
A method for bleaching into optical white tone textile products obtained from fibres of animal origin, not previously subjected to a bleaching treatment, characterized in that it comprises: - preparing a bath, for treating the textile product, composed of an amount of water of at least 15 litres per 1000 grams of weight of the product to treat in the bath, of at least 75 grams of 90% hydrosulphite, of a solvent for removing fatty substances from animal fibres, in an amount of at least 15 grams and of at least 20 grams of an optical brightener compound, - leaving the product in the bath for a period of time between 60 and 90 minutes, - keeping the bath temperature, during the treatment of the product at a level not higher than 60°C wherein the said textile product to submit to treatment into the said bath is composed of fibres of animal origin, prepared for the spinning, so-called TOPS, without having received a bleaching treatment or wherein the said textile product to submit to treatment into the said bath is composed of extra-fine combed yarns of animal origin which have not yet received any bleaching treatment. - preparing a bath, for treating the textile product, composed of an amount of water of at least 15 litres per 1000 grams of weight of the product to treat in the bath, of at least 75 grams of 90% hydrosulphite, of a solvent for removing fatty substances from animal fibres, in an amount of at least 15 grams and of at least 20 grams of an optical brightener compound, - leaving the product in the bath for a period of time between 60 and 90 minutes, - keeping the bath temperature, during the treatment of the product at a level not higher than 60°C
A method of manufacturing ethyleneamines, the method comprising the steps of: (a) manufacturing an ethyleneamines composition comprising a mixture of ethyleneamines using an ethyleneamine-generating process in an ethylenedichloride or a reductive amination reactor, the ethyleneamines-generating step being selected from an EDC process or an RA process; and (b) transaminating at least a portion of the ethyleneamines composition in a transamination reactor to form a transaminated ethyleneamines composition; wherein the transaminated ethyleneamines composition comprises at least one ethyleneamine that is present in an amount that is greater than an amount that the at least one ethyleneamine is present in the ethyleneamines composition that is transaminated in step (b). (a) manufacturing an ethyleneamines composition comprising a mixture of ethyleneamines using an ethyleneamine-generating process in an ethylenedichloride or a reductive amination reactor, the ethyleneamines-generating step being selected from an EDC process or an RA process; and (b) transaminating at least a portion of the ethyleneamines composition in a transamination reactor to form a transaminated ethyleneamines composition; wherein the transaminated ethyleneamines composition comprises at least one ethyleneamine that is present in an amount that is greater than an amount that the at least one ethyleneamine is present in the ethyleneamines composition that is transaminated in step (b).
A method for switching a node main-standby controller based on a content distribution network, CDN, comprising: all node standby controllers detecting status of a current node main controller; when the current node main controller is abnormal, the node standby controller, which firstly detects that the current node main controller is abnormal, selecting a second node standby controller to be a new node main controller by replacement according to a preset rule, which comprises following steps: A, the node standby controller selecting the second node standby controller as the new node main controller according to the preset rule and sending a switching request to notify the second node standby controller; and B, the selected node standby controller being switched to be the new node main controller based on the switching request, notifying a switching result to the other standby controllers and reporting to a manager; characterized by that, before step A, further comprising a step that all node standby controllers detect other node standby controllers respectively and exchange and store performance parameters mutually; wherein, the preset rule comprises a rule of selecting the node standby controller with a normal status and an optimal performance according to the stored status and performance parameter of the node standby controller. all node standby controllers detecting status of a current node main controller; when the current node main controller is abnormal, the node standby controller, which firstly detects that the current node main controller is abnormal, selecting a second node standby controller to be a new node main controller by replacement according to a preset rule, which comprises following steps: A, the node standby controller selecting the second node standby controller as the new node main controller according to the preset rule and sending a switching request to notify the second node standby controller; and B, the selected node standby controller being switched to be the new node main controller based on the switching request, notifying a switching result to the other standby controllers and reporting to a manager; A, the node standby controller selecting the second node standby controller as the new node main controller according to the preset rule and sending a switching request to notify the second node standby controller; and B, the selected node standby controller being switched to be the new node main controller based on the switching request, notifying a switching result to the other standby controllers and reporting to a manager;
A method of estimating future build-up of at least one disinfection by-product in water from a water supply, said method comprising: controlling an actuator on an intermittent basis to automatically draw a sample of water from the water supply; automatically transferring each sample to a vessel and heating the transferred sample for a period of time, where both a temperature of the heating and the period of time of the heating are selected so as to simulate aging of the sample according to a selective age; passing the sample following heating through a transfer mechanism to extract the at least one DBP and to transfer the extracted at least one DBP to a second medium of known volume; transferring the second medium of known volume to a measurement device, and measuring concentration of the at least one DBP in the second medium with the measurement device to generate at least one result; and estimating the future build-up dependent on the at least one result; wherein the at least one DBP is formed in the water from the water supply in dependence on water age and residual presence of a disinfecting agent, and the controlling, the automatically transferring and heating, the passing, the transferring to the second medium and measuring and the estimating are each automated steps of a sequence for each sample performed on the intermittent basis under the control of one or more processors. controlling an actuator on an intermittent basis to automatically draw a sample of water from the water supply; automatically transferring each sample to a vessel and heating the transferred sample for a period of time, where both a temperature of the heating and the period of time of the heating are selected so as to simulate aging of the sample according to a selective age; passing the sample following heating through a transfer mechanism to extract the at least one DBP and to transfer the extracted at least one DBP to a second medium of known volume; transferring the second medium of known volume to a measurement device, and measuring concentration of the at least one DBP in the second medium with the measurement device to generate at least one result; and estimating the future build-up dependent on the at least one result; wherein the at least one DBP is formed in the water from the water supply in dependence on water age and residual presence of a disinfecting agent, and the controlling, the automatically transferring and heating, the passing, the transferring to the second medium and measuring and the estimating are each automated steps of a sequence for each sample performed on the intermittent basis under the control of one or more processors. the at least one DBP is formed in the water from the water supply in dependence on water age and residual presence of a disinfecting agent, and the controlling, the automatically transferring and heating, the passing, the transferring to the second medium and measuring and the estimating are each automated steps of a sequence for each sample performed on the intermittent basis under the control of one or more processors.
A regulating valve for regulating a hydraulic volume flow, including a valve body with a valve intake and a valve outlet, a shell with an inner sealing surface movable along an axis of movement in the valve body, and a regulating component with an outer sealing surface, which with an the inner sealing surface forms a seal seat for sealing a shell opening of the shell, wherein a spring device charges the regulating component with a spring force in the direction of the seal seat, characterized in that the regulating component protrudes through the shell opening in the direction of the spring force and is formed in order to abut against an inner wall of the valve body during a movement of the shell along the axis of movement.
A cell that expresses an antibody that binds human CD3 which antibody comprises a heavy chain and a light chain wherein said heavy chain comprises a variable region that comprises the amino acid sequence: with 0-5 amino acid substitutions at one or more positions other than the position indicated by X 1 X 2 and other than the CDR regions; wherein X 1 = N and X 2 = A; X 1 = N and X 2 = T; X 1 = H and X 2 = G; X 1 = D and X 2 = G; or X 1 = H and X 2 = A; and said light chain comprises the O12/IgVK1-39 light chain variable region of figure 23A with 0-5 amino acid substitutions. in the non CDRs regions X 1 = N and X 2 = A; X 1 = N and X 2 = T; X 1 = H and X 2 = G; X 1 = D and X 2 = G; or X 1 = H and X 2 = A; and said light chain comprises the O12/IgVK1-39 light chain variable region of figure 23A with 0-5 amino acid substitutions. in the non CDRs regions
A method of operating a first wireless device (402, 502), comprising: exchanging information through peer-to-peer communication with a second wireless device (404, 504) using a first radio technology, the information regarding at least one additional radio technology, wherein the first wireless device (402, 502) and the second wireless device (404, 504) are separated by a distance, the first radio technology has a first communication range and a second radio technology of the at least one additional radio technology has a second communication range less than the first communication range; determining whether to utilize the second radio technology for peer-to-peer communication with the second wireless device (404, 504) rather than the first radio technology, wherein the second radio technology is determined to be utilized when the second communication range is greater than the distance; utilizing the first radio technology to exchange control information for the second radio technology; and wherein the exchanging information with the second wireless device (404, 504) using the first radio technology occurs when the first communication range is greater than the distance, the second communication range is less than the distance, and the first wireless device (402, 502) anticipates that the second communication range will be greater than a future distance between the first wireless device (402, 502) and the second wireless device (404, 504). exchanging information through peer-to-peer communication with a second wireless device (404, 504) using a first radio technology, the information regarding at least one additional radio technology, wherein the first wireless device (402, 502) and the second wireless device (404, 504) are separated by a distance, the first radio technology has a first communication range and a second radio technology of the at least one additional radio technology has a second communication range less than the first communication range; determining whether to utilize the second radio technology for peer-to-peer communication with the second wireless device (404, 504) rather than the first radio technology, wherein the second radio technology is determined to be utilized when the second communication range is greater than the distance; utilizing the first radio technology to exchange control information for the second radio technology; and wherein the exchanging information with the second wireless device (404, 504) using the first radio technology occurs when the first communication range is greater than the distance, the second communication range is less than the distance, and the first wireless device (402, 502) anticipates that the second communication range will be greater than a future distance between the first wireless device (402, 502) and the second wireless device (404, 504).
A method of encoding audio data, comprising: receiving audio data to be encoded; performing Modified Discrete Cosine Transform, MDCT, on the audio data; calculating a mask curve in the following formula: y = a + bx + c x, Where b represents a first linear regression coefficient, a represents a second linear coefficient, x represents a result of the MDCT, and c(x) is a preset mask compensation value; where the MDCT is performed in the following formula: X k = ∑ n = 0 N − 1 h n x n cos 2 π N k + 1 2 n + n 0, where 0 ≤ k ≤ N 2 − 1; wherein X[k] corresponds to the result x used in the formula for calculating said mask curve; calculating a floor curve from the mask curve through linear segmentation; calculating a spectral residual from the mask curve and the floor curve; channel-coupling the spectral residual; vector-quantizing a result of the channel-coupling; and encoding data obtained from the vector-quantizing at a specified sampling rate and bit rate into encoded audio data. receiving audio data to be encoded; performing Modified Discrete Cosine Transform, MDCT, on the audio data; calculating a mask curve in the following formula: y = a + bx + c x, Where b represents a first linear regression coefficient, a represents a second linear coefficient, x represents a result of the MDCT, and c(x) is a preset mask compensation value; where the MDCT is performed in the following formula: X k = ∑ n = 0 N − 1 h n x n cos 2 π N k + 1 2 n + n 0, where 0 ≤ k ≤ N 2 − 1; wherein X[k] corresponds to the result x used in the formula for calculating said mask curve; calculating a floor curve from the mask curve through linear segmentation; calculating a spectral residual from the mask curve and the floor curve; channel-coupling the spectral residual; vector-quantizing a result of the channel-coupling; and encoding data obtained from the vector-quantizing at a specified sampling rate and bit rate into encoded audio data. wherein X[k] corresponds to the result x used in the formula for calculating said mask curve; calculating a floor curve from the mask curve through linear segmentation; calculating a spectral residual from the mask curve and the floor curve; channel-coupling the spectral residual; vector-quantizing a result of the channel-coupling; and encoding data obtained from the vector-quantizing at a specified sampling rate and bit rate into encoded audio data.
A connection device for suspending a monorail beam in a mine roof, wherein the connection device comprises a top anchor integrated with a roof bolt or attachable to a roof bolt, wherein the connection device comprises a clamping device for connection to the monorail beam, wherein the clamping device comprises a housing attachable to the monorail beam, wherein the housing comprises a central recess provided with an opening configured such that the top anchor is movable into and out of the central recess along a first axis through the opening, wherein the clamping device comprises at least one locking member radially movable into and out of the central recess with respect to the first axis between an inner locking position in which the locking member(s) prevent the top anchor from moving out of the central recess, and an outer open position in which the top anchor is free to move past the locking member(s), and wherein each respective locking member is provided in a respective radial guide recess of the housing, characterized in that the connection device further comprising a biasing means configured to bias the locking members towards their locking position. wherein the connection device comprises a top anchor integrated with a roof bolt or attachable to a roof bolt, wherein the connection device comprises a clamping device for connection to the monorail beam, wherein the clamping device comprises a housing attachable to the monorail beam, wherein the housing comprises a central recess provided with an opening configured such that the top anchor is movable into and out of the central recess along a first axis through the opening, wherein the clamping device comprises at least one locking member radially movable into and out of the central recess with respect to the first axis between an inner locking position in which the locking member(s) prevent the top anchor from moving out of the central recess, and an outer open position in which the top anchor is free to move past the locking member(s), and wherein each respective locking member is provided in a respective radial guide recess of the housing, characterized in that the connection device further comprising a biasing means configured to bias the locking members towards their locking position.
A lighting device, comprising (i) an array of lenses, (ii) a light-emitting diode fixed onto a circuit board, (iii) wherein said light-emitting diode is formed at a first circuit board surface of said circuit board, and wherein (iv) said light-emitting diode is received by a lens in a cavity of said lens, surrounded by it, and wherein (v) said lens has a planar positioning surface formed to face said light-emitting diode and fixed to said first circuit board surface, wherein (a) said array of lenses has a support plate that can be detachably connected with a support of said lighting device, wherein (b) said support plate is formed to be able to receive the circuit board, characterized in that said support plate (c) has an outlet opening of a channel system provided for aeration formed to communicate with the environment, and a pressure equalization element as a closure. (i) an array of lenses, (ii) a light-emitting diode fixed onto a circuit board, (iii) wherein said light-emitting diode is formed at a first circuit board surface of said circuit board, and wherein (iv) said light-emitting diode is received by a lens in a cavity of said lens, surrounded by it, and wherein (v) said lens has a planar positioning surface formed to face said light-emitting diode and fixed to said first circuit board surface, wherein (a) said array of lenses has a support plate that can be detachably connected with a support of said lighting device, wherein (b) said support plate is formed to be able to receive the circuit board, characterized in that said support plate (c) has an outlet opening of a channel system provided for aeration formed to communicate with the environment, and a pressure equalization element as a closure. (a) said array of lenses has a support plate that can be detachably connected with a support of said lighting device, wherein (b) said support plate is formed to be able to receive the circuit board, characterized in that said support plate (c) has an outlet opening of a channel system provided for aeration formed to communicate with the environment, and a pressure equalization element as a closure.