mhurhangee/ep-ind-claims huggingface dataset:
Method for producing silica of the type comprising the reaction of a silicate with at least one acid, as a result of which a silica suspension is obtained, then the separation and drying of this suspension, in which the reaction of the silicate with the acid is carried out according to the following successive steps: (i) an aqueous vessel heel having a pH of between 2 and 5, preferably between 2.5 and 5, is formed, (ii) silicate and acid are simultaneously added to said vessel heel, in such a way that the pH of the reaction medium is maintained between 2 and 5, preferably between 2.5 and 5, (iii) the addition of the acid is stopped while at the same time continuing the addition of silicate to the reaction medium until a pH value of the reaction medium of between 7 and 10, preferably between 7.5 and 9.5, is obtained, (iv) silicate and acid are simultaneously added to the reaction medium, in such a way that the pH of the reaction medium is maintained between 7 and 10, preferably between 7.5 and 9.5, (v) the addition of the silicate is stopped while at the same time continuing the addition of the acid to the reaction medium until a pH value of the reaction medium of less than 6 is obtained, in which method, in step (ii), the acid used after the gel point has been reached in the reaction medium is a concentrated acid chosen from the group formed by sulfuric acid having a concentration of at least 80% by weight, in particular of at least 90% by weight, acetic acid or formic acid having a concentration of at least 90% by weight, nitric acid having a concentration of at least 60% by weight, phosphoric acid having a concentration of at least 75% by weight, and hydrochloric acid having a concentration of at least 30% by weight. (i) an aqueous vessel heel having a pH of between 2 and 5, preferably between 2.5 and 5, is formed, (ii) silicate and acid are simultaneously added to said vessel heel, in such a way that the pH of the reaction medium is maintained between 2 and 5, preferably between 2.5 and 5, (iii) the addition of the acid is stopped while at the same time continuing the addition of silicate to the reaction medium until a pH value of the reaction medium of between 7 and 10, preferably between 7.5 and 9.5, is obtained, (iv) silicate and acid are simultaneously added to the reaction medium, in such a way that the pH of the reaction medium is maintained between 7 and 10, preferably between 7.5 and 9.5, (v) the addition of the silicate is stopped while at the same time continuing the addition of the acid to the reaction medium until a pH value of the reaction medium of less than 6 is obtained,
A light-emitting module, comprising: a substrate; at least one semiconductor light-emitting diode chip arranged on a main surface of the substrate; and a heat transfer member thermally connecting at least a portion of an outer circumferential surface of the semiconductor light-emitting diode chip with the main surface of the substrate, and transferring heat produced by the semiconductor light-emitting diode chip to the substrate, wherein the heat transfer member includes a base material that is optically transmissive, and particles of an optically transmissive material that are dispersed within the base material and have higher thermal conductivity than the base material, the particles include first particles of a first type of optically transmissive material, and second particles of a second type of optically transmissive material, an average diameter of the first particles is greater than a wavelength of red light, an average diameter of the second particles is smaller than a wavelength of blue light, characterized in that the first type of optically transmissive material has higher thermal conductivity than the second type of optically transmissive material. a substrate; at least one semiconductor light-emitting diode chip arranged on a main surface of the substrate; and a heat transfer member thermally connecting at least a portion of an outer circumferential surface of the semiconductor light-emitting diode chip with the main surface of the substrate, and transferring heat produced by the semiconductor light-emitting diode chip to the substrate, wherein the heat transfer member includes a base material that is optically transmissive, and particles of an optically transmissive material that are dispersed within the base material and have higher thermal conductivity than the base material, the particles include first particles of a first type of optically transmissive material, and second particles of a second type of optically transmissive material, an average diameter of the first particles is greater than a wavelength of red light, an average diameter of the second particles is smaller than a wavelength of blue light, characterized in that the first type of optically transmissive material has higher thermal conductivity than the second type of optically transmissive material.
An isolated anti-FGF19 antibody which specifically binds human FGF19, wherein the antibody binds a peptide consisting of the amino acid sequence GFLPLSHFLPMLPMVPEEPEDLR (SEQ ID NO:9), wherein the antibody blocks FGF19 binding to FGFR4.
Coupling device for connecting a heat exchanger to a standardized connector, - wherein the coupling device comprises a tubular piece and a hollow cylindrical adapter piece, - wherein the tubular piece is inserted into the adapter piece along a mounting axis to a predetermined distance and is axially fixed to the adapter piece, - wherein the coupling device contains a form-fitting unit and the form-fitting unit non-rotatably fixes the adapter piece to the tubular piece, - wherein the tubular piece contains an outer stop projection which at least partially surrounds the mounting axis, - wherein the adapter piece contains an inner stop recess which at least partially surrounds the mounting axis, and - wherein the stop projection engages radially in the stop recess and thereby the adapter piece abuts axially against the tubular piece, characterized - in that the tubular piece contains an outer contour arranged transversely to the mounting axis and lying on the outside at the stop projection, - in that the adapter piece contains an inner contour arranged transversely to the mounting axis and lying on the inside at the stop recess, - in that the outer contour and the inner contour abut each other and are rotationally asymmetrical. - wherein the coupling device comprises a tubular piece and a hollow cylindrical adapter piece, - wherein the tubular piece is inserted into the adapter piece along a mounting axis to a predetermined distance and is axially fixed to the adapter piece, - wherein the coupling device contains a form-fitting unit and the form-fitting unit non-rotatably fixes the adapter piece to the tubular piece, - wherein the tubular piece contains an outer stop projection which at least partially surrounds the mounting axis, - wherein the adapter piece contains an inner stop recess which at least partially surrounds the mounting axis, and - wherein the stop projection engages radially in the stop recess and thereby the adapter piece abuts axially against the tubular piece, - in that the tubular piece contains an outer contour arranged transversely to the mounting axis and lying on the outside at the stop projection, - in that the adapter piece contains an inner contour arranged transversely to the mounting axis and lying on the inside at the stop recess, - in that the outer contour and the inner contour abut each other and are rotationally asymmetrical.
Method for data transmission between a mobile radio transmitter and a radio receiver of a machine or system, wherein safety-related information is transmitted via the SCO connection of a first radio link and safety-unrelated information is transmitted via the ACL connection of a second radio link of a radio system in accordance with the Bluetooth standard between the mobile radio transmitter and the radio receiver of the machine or system.
An interface device for use with a measurement probe (100a, 100b, 100c) and a transmitter (210a, 210b, 210c), the interface device comprising: at least one input (330, 332, 334, 340a) configured to receive a sensor signal from a measurement probe (100a, 100b, 100c); a processor configured to: generate a plurality of simulated sensor output signals for output to a transmitter (210a, 210b, 210c); receive transmitter response information regarding the response of the transmitter (210a, 210b, 210c) to the plurality of simulated sensor output signals; determine, based on the transmitter response information, information regarding at least one transmitter setting, where the transmitter setting comprises transmitter calibration information; and generate an emulated sensor signal using the sensor signal and the information regarding the at least one transmitter setting, the emulated sensor signal configured to produce an accurate measurement at the transmitter (210a, 210b, 210c) without changing the at least one transmitter setting; and at least one output (340b, 352, 354, 354) configured to output the plurality of simulated sensor output signals and the emulated sensor signal to the transmitter (210a, 210b, 210c). at least one input (330, 332, 334, 340a) configured to receive a sensor signal from a measurement probe (100a, 100b, 100c); a processor configured to: generate a plurality of simulated sensor output signals for output to a transmitter (210a, 210b, 210c); receive transmitter response information regarding the response of the transmitter (210a, 210b, 210c) to the plurality of simulated sensor output signals; determine, based on the transmitter response information, information regarding at least one transmitter setting, where the transmitter setting comprises transmitter calibration information; and generate an emulated sensor signal using the sensor signal and the information regarding the at least one transmitter setting, the emulated sensor signal configured to produce an accurate measurement at the transmitter (210a, 210b, 210c) without changing the at least one transmitter setting; and generate a plurality of simulated sensor output signals for output to a transmitter (210a, 210b, 210c); receive transmitter response information regarding the response of the transmitter (210a, 210b, 210c) to the plurality of simulated sensor output signals; determine, based on the transmitter response information, information regarding at least one transmitter setting, where the transmitter setting comprises transmitter calibration information; and generate an emulated sensor signal using the sensor signal and the information regarding the at least one transmitter setting, the emulated sensor signal configured to produce an accurate measurement at the transmitter (210a, 210b, 210c) without changing the at least one transmitter setting; and at least one output (340b, 352, 354, 354) configured to output the plurality of simulated sensor output signals and the emulated sensor signal to the transmitter (210a, 210b, 210c).
A single-walled carbon nanotube composition comprising: single-walled carbon nanotubes comprising 95 wt% or more of semiconducting single-walled carbon nanotubes, based on total weight of the single-walled carbon nanotubes; and, a conjugated polymer of Formula associated with the semiconducting single-walled carbon nanotubes in a pi-pi interaction: where: Ar 1 is an aromatic unit that provides the pi-pi interaction with semiconducting single-walled carbon nanotubes; Ar 2 is absent, the same as Ar 1 or different from Ar 1 and when present is an aromatic unit that provides an additional pi-pi interaction with the semiconducting single-walled carbon nanotubes; Q is methylene; R is H or a C 1-20 saturated hydrocarbyl group or a C 2-20 unsaturated hydrocarbyl group; y is 1 or 2; z is 1, 2, 3, 4, 5, or 6; and, n is an integer from 10 to 1,000. Ar 1 is an aromatic unit that provides the pi-pi interaction with semiconducting single-walled carbon nanotubes; Ar 2 is absent, the same as Ar 1 or different from Ar 1 and when present is an aromatic unit that provides an additional pi-pi interaction with the semiconducting single-walled carbon nanotubes; Q is methylene; R is H or a C 1-20 saturated hydrocarbyl group or a C 2-20 unsaturated hydrocarbyl group; y is 1 or 2; z is 1, 2, 3, 4, 5, or 6; and,
An aspiration catheter system for use in connection with navigation within a vascular lumen and thrombectomy of a thrombus, the aspiration catheter system comprising: a tubular catheter member having an open distal end and an inner diameter defining a catheter lumen; a vacuum source operably coupled to the tubular catheter member to impart a vacuum within the catheter lumen to aspirate the thrombus; a rotational drive system; a flexible shaft having a channel operably coupled to the rotational drive system configured for rotational movement in response thereto, the flexible shaft at least partially disposed within the tubular catheter member configured for uncoupled rotational and orbital motion therein, the flexible shaft configured to define a corkscrew shape in response to rotational driving force by the drive system that results in formation of hydrodynamic vortices within the catheter lumen; and a guidewire member selectively inserted at least partially within the flexible shaft, the guidewire member and the flexible shaft being collectively sufficient to navigate the vascular lumen and steer translational movement of the tubular catheter member there along, the guidewire member being configured to be removable from the flexible shaft. a tubular catheter member having an open distal end and an inner diameter defining a catheter lumen; a vacuum source operably coupled to the tubular catheter member to impart a vacuum within the catheter lumen to aspirate the thrombus; a rotational drive system; a flexible shaft having a channel operably coupled to the rotational drive system configured for rotational movement in response thereto, the flexible shaft at least partially disposed within the tubular catheter member configured for uncoupled rotational and orbital motion therein, the flexible shaft configured to define a corkscrew shape in response to rotational driving force by the drive system that results in formation of hydrodynamic vortices within the catheter lumen; and a guidewire member selectively inserted at least partially within the flexible shaft, the guidewire member and the flexible shaft being collectively sufficient to navigate the vascular lumen and steer translational movement of the tubular catheter member there along, the guidewire member being configured to be removable from the flexible shaft.
An external device (170; 270A; 270B; 470; 670) for communication with an implantable device (105; 205), the external device comprising: a communication circuit (425; 625) configured to receive a communication signal from at least one other device different from the implantable device (105; 205); a locating circuit (430; 630) configured to determine a location of the external device (170; 270A; 270B; 470; 670) using the received communication signal; and a control circuit (435; 635) electrically coupled to the communication circuit (425; 625) and the locating circuit (430; 630) and configured to: provide user access to an implantable device (105; 205) feature according to the determined location, characterised in that the control circuit (435; 635) is further configured to determine whether the determined location imposes a limit on functionality of the implanted device. a communication circuit (425; 625) configured to receive a communication signal from at least one other device different from the implantable device (105; 205); a locating circuit (430; 630) configured to determine a location of the external device (170; 270A; 270B; 470; 670) using the received communication signal; and a control circuit (435; 635) electrically coupled to the communication circuit (425; 625) and the locating circuit (430; 630) and configured to: provide user access to an implantable device (105; 205) feature according to the determined location, characterised in that the control circuit (435; 635) is further configured to determine whether the determined location imposes a limit on functionality of the implanted device. provide user access to an implantable device (105; 205) feature according to the determined location, characterised in that the control circuit (435; 635) is further configured to determine whether the determined location imposes a limit on functionality of the implanted device.
A method of suppressing echo, the method comprising: outputting an audio signal; receiving an audio signal, wherein the received audio signal includes echo resulting from said outputted audio signal; modelling an echo path of the echo in the received audio signal using an adaptive model based on the outputted audio signal and the received audio signal to determine an adaptive model estimate of the echo in the received audio signal; using the adaptive model estimate to determine an estimate of the echo power of the echo in the received audio signal; determining the power of the received audio signal; using the estimate of the echo power and the determined power of the received audio signal to determine echo suppression gains each for a respective frequency sub-band of a plurality of frequency sub-bands; characterized by applying temporal smoothing to one or more of the determined echo suppression gains and using the one or more smoothed echo suppression gains to apply echo suppression to the received audio signal, thereby suppressing the echo in the received audio signal, wherein the amount of smoothing applied to the one or more echo suppression gains is varied according to a function of a frequency of the respective frequency sub-band of the received audio signal to which the suppression gains is applied, wherein said function does not decrease with the frequency of the frequency sub-bands. outputting an audio signal; receiving an audio signal, wherein the received audio signal includes echo resulting from said outputted audio signal; modelling an echo path of the echo in the received audio signal using an adaptive model based on the outputted audio signal and the received audio signal to determine an adaptive model estimate of the echo in the received audio signal; using the adaptive model estimate to determine an estimate of the echo power of the echo in the received audio signal; determining the power of the received audio signal; using the estimate of the echo power and the determined power of the received audio signal to determine echo suppression gains each for a respective frequency sub-band of a plurality of frequency sub-bands; characterized by applying temporal smoothing to one or more of the determined echo suppression gains and using the one or more smoothed echo suppression gains to apply echo suppression to the received audio signal, thereby suppressing the echo in the received audio signal, wherein the amount of smoothing applied to the one or more echo suppression gains is varied according to a function of a frequency of the respective frequency sub-band of the received audio signal to which the suppression gains is applied, wherein said function does not decrease with the frequency of the frequency sub-bands.
A defatted rice bran hydrolysate which comprises of more than 90%, preferably of more than 95%, of (poly) peptides with a molecular weight of more than 500 Da and which has a DH (Degree of Hydrolysis) between 10 and 16% determined as defined herein, and which has a protein content of between 30 wt% and 45 wt%, preferably between 35 wt% and 45 wt%, on dry matter and which has a molecular weight distribution of the (poly) peptides present determined as defined herein: MW > 100000: 10 to 30 wt%; 100000 > MW > 30000: 10 to 30 wt%; 30000>MW>3000 10 to 30 wt%; 3000 > MW > 500: 40 to 60 wt%; MW < 500: less than 5 wt%
A method performed by a radio network node for handling a communication of a user equipment, UE, in a wireless communication network, the method comprising: - transmitting a handover command for handing over the UE in a make before break handover, from a source cell to a target cell, wherein a security key for encrypting data communicated between the radio network node and the UE is retained during the make before break handover, and characterized by - maintaining a sequence number status for reception and/or transmission of a signalling radio bearer of the UE during the make before break handover from the source cell to the target cell, and at a fallback from the target cell to the source cell, when the UE triggers the fallback to the source cell, wherein maintaining the sequence number status comprises maintaining sequential incrementation of a Packet Data Convergence Protocol, PDCP, downlink or uplink, DL/UL, COUNT value for signalling radio bearer one, SRB1, at the make before break handover to the target cell and at fallback to the source cell of the UE. - transmitting a handover command for handing over the UE in a make before break handover, from a source cell to a target cell, wherein a security key for encrypting data communicated between the radio network node and the UE is retained during the make before break handover, and - maintaining a sequence number status for reception and/or transmission of a signalling radio bearer of the UE during the make before break handover from the source cell to the target cell, and at a fallback from the target cell to the source cell, when the UE triggers the fallback to the source cell, wherein maintaining the sequence number status comprises maintaining sequential incrementation of a Packet Data Convergence Protocol, PDCP, downlink or uplink, DL/UL, COUNT value for signalling radio bearer one, SRB1, at the make before break handover to the target cell and at fallback to the source cell of the UE.
An electrical device comprising: a body (20, 30) comprising a thermochromic material, a composition of said thermochromic material comprising: a base polymer material; a temperature sensitive material that changes, in response to a temperature change of the body, a color of said thermochromic material from a first color at a first temperature and a second color at a second temperature, said second color differing from said first color; and a stabilizer, wherein the composition has a weight percentage of the stabilizer relative to the total weight of the composition that accommodates the stabilizer enhancing a responsiveness of the temperature sensitive material in visually attaining the second color in response to the temperature change; and a visual indicator (28, 38) supported by said body (20, 30), said visual indicator (28, 38) having a color substantially matching said first color of said thermochromic material, wherein said visual indicator (28, 38) becomes visible when said thermochromic material changes to said second color to indicate a change in temperature of the electrical device. a base polymer material; a temperature sensitive material that changes, in response to a temperature change of the body, a color of said thermochromic material from a first color at a first temperature and a second color at a second temperature, said second color differing from said first color; and a stabilizer, wherein the composition has a weight percentage of the stabilizer relative to the total weight of the composition that accommodates the stabilizer enhancing a responsiveness of the temperature sensitive material in visually attaining the second color in response to the temperature change; and a visual indicator (28, 38) supported by said body (20, 30), said visual indicator (28, 38) having a color substantially matching said first color of said thermochromic material, wherein said visual indicator (28, 38) becomes visible when said thermochromic material changes to said second color to indicate a change in temperature of the electrical device.