mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adaptive bitrate, ABR, adjustments in an IP network comprising: initiating (S102) probing of the IP network to decide if at least one candidate bitrate, which is higher than a pre-set bitrate of a client device (151-153) data stream (DSx), is applicable; wherein said probing (S103) comprises: increasing a transfer bitrate of said client device data stream by replicating data or packets of said client device data stream, wherein said step of increasing the transfer bitrate is performed stepwise or by ramping the transfer bitrate level according to a predetermined increase rate, a maximum transfer bitrate tested during probing being selected between 100% to 150% of the candidate bitrate; monitoring (S104) at least one network characteristics of the IP network; and determining (S105) that the candidate bitrate is applicable if none of said monitored network characteristics exceeds a predetermined threshold level. initiating (S102) probing of the IP network to decide if at least one candidate bitrate, which is higher than a pre-set bitrate of a client device (151-153) data stream (DSx), is applicable; wherein said probing (S103) comprises: increasing a transfer bitrate of said client device data stream by replicating data or packets of said client device data stream, wherein said step of increasing the transfer bitrate is performed stepwise or by ramping the transfer bitrate level according to a predetermined increase rate, a maximum transfer bitrate tested during probing being selected between 100% to 150% of the candidate bitrate; monitoring (S104) at least one network characteristics of the IP network; and determining (S105) that the candidate bitrate is applicable if none of said monitored network characteristics exceeds a predetermined threshold level. increasing a transfer bitrate of said client device data stream by replicating data or packets of said client device data stream, wherein said step of increasing the transfer bitrate is performed stepwise or by ramping the transfer bitrate level according to a predetermined increase rate, a maximum transfer bitrate tested during probing being selected between 100% to 150% of the candidate bitrate; monitoring (S104) at least one network characteristics of the IP network; and determining (S105) that the candidate bitrate is applicable if none of said monitored network characteristics exceeds a predetermined threshold level.
A transfer apparatus comprising: a rod-shaped member that comprises a magnetic material; an opposite member that is opposed to a part of a side surface of the rod-shaped member and comprises a magnetic material; a driving device configured to rotate the rod-shaped member about a central axis of the rod-shaped member to change a relative position between the rod-shaped member and the opposite member ; and a synchronization loss monitoring portion configured to conduct synchronization loss monitoring by predicting or detecting a synchronization loss between the rod-shaped member and the opposite member based on a fluctuation of a torque of the driving device , characterized in that the synchronization loss monitoring portion is configured to calculate a load applied to the opposite member based on a difference between an external force applied to the opposite member by the driving device via the rod-shaped member and a force required to move the opposite member when no load is applied to the opposite member , and predict or detect the synchronization loss based on the calculated load. a rod-shaped member that comprises a magnetic material; an opposite member that is opposed to a part of a side surface of the rod-shaped member and comprises a magnetic material; a driving device configured to rotate the rod-shaped member about a central axis of the rod-shaped member to change a relative position between the rod-shaped member and the opposite member ; and a synchronization loss monitoring portion configured to conduct synchronization loss monitoring by predicting or detecting a synchronization loss between the rod-shaped member and the opposite member based on a fluctuation of a torque of the driving device , characterized in that the synchronization loss monitoring portion is configured to calculate a load applied to the opposite member based on a difference between an external force applied to the opposite member by the driving device via the rod-shaped member and a force required to move the opposite member when no load is applied to the opposite member , and predict or detect the synchronization loss based on the calculated load.
A terminal apparatus comprising: a reception unit configured to receive a message of terminal capability enquiry; and a transmission unit configured to transmit terminal capability information in a case that the message has been received, wherein in a case that the terminal capability information includes first information indicating that uplink Licensed Assisted Access, LAA, is supported, the reception unit is configured to in a cell that is other than an LAA secondary cell, receive a first Downlink Control information, DCI, format used for scheduling a first Physical Uplink Shared Channel, PUSCH, of a first resource allocation type or a second resource allocation type, and in the LAA secondary cell, receive a second DCI format used for scheduling a second PUSCH of a third resource allocation type, and the transmission unit is configured to in the cell that is other than the LAA secondary cell, transmit the first PUSCH of the first resource allocation type or the second resource allocation type, and in the LAA secondary cell, transmit the second PUSCH of the third resource allocation type. a reception unit configured to receive a message of terminal capability enquiry; and a transmission unit configured to transmit terminal capability information in a case that the message has been received, wherein in a case that the terminal capability information includes first information indicating that uplink Licensed Assisted Access, LAA, is supported, the reception unit is configured to in a cell that is other than an LAA secondary cell, receive a first Downlink Control information, DCI, format used for scheduling a first Physical Uplink Shared Channel, PUSCH, of a first resource allocation type or a second resource allocation type, and in the LAA secondary cell, receive a second DCI format used for scheduling a second PUSCH of a third resource allocation type, and in a cell that is other than an LAA secondary cell, receive a first Downlink Control information, DCI, format used for scheduling a first Physical Uplink Shared Channel, PUSCH, of a first resource allocation type or a second resource allocation type, and in the LAA secondary cell, receive a second DCI format used for scheduling a second PUSCH of a third resource allocation type, and the transmission unit is configured to in the cell that is other than the LAA secondary cell, transmit the first PUSCH of the first resource allocation type or the second resource allocation type, and in the LAA secondary cell, transmit the second PUSCH of the third resource allocation type. in the cell that is other than the LAA secondary cell, transmit the first PUSCH of the first resource allocation type or the second resource allocation type, and in the LAA secondary cell, transmit the second PUSCH of the third resource allocation type.
A resin having a structure defined by Formula (VI): wherein: X is cyclopentadiene; B is H; (Z) n is a bond; m is an integer ranging from 1 to 5; and A has the structure defined by Formula (IID): wherein R a and R b are independently selected from H, F, a C 1 to C 10 linear or cyclic, branched or straight chain aliphatic group; Y is H, -CH 3 , -CH=CH 2 , - CH=CH-CH 3 , or alkyne; and t is 0 or an integer ranging from 1 to 20. X is cyclopentadiene; B is H; (Z) n is a bond; m is an integer ranging from 1 to 5; and A has the structure defined by Formula (IID): wherein R a and R b are independently selected from H, F, a C 1 to C 10 linear or cyclic, branched or straight chain aliphatic group; Y is H, -CH 3 , -CH=CH 2 , - CH=CH-CH 3 , or alkyne; and t is 0 or an integer ranging from 1 to 20.
A die , comprising: a generally cylindrical die ring comprising an end surface and having a radial bending (RB0) mode of vibration in which the end surface oscillates between a concave and a convex state; and a mounting tube coaxial with the die ring and extending from the end surface of the die ring ; characterized in that the mounting tube joins the end surface of the die ring at a radius where the amplitude of the oscillation of the end surface is at a minimum. a generally cylindrical die ring comprising an end surface and having a radial bending (RB0) mode of vibration in which the end surface oscillates between a concave and a convex state; and a mounting tube coaxial with the die ring and extending from the end surface of the die ring ; characterized in that the mounting tube joins the end surface of the die ring at a radius where the amplitude of the oscillation of the end surface is at a minimum.
A method of manufacture for a late lean injection system in a combustor of a combustion turbine engine, wherein the combustor includes a flow assembly that includes an inner radial wall , which defines a primary combustion chamber downstream of a primary fuel nozzle , and an outer radial wall , which surrounds the inner radial wall forming a flow annulus therebetween, the method including the steps of: a) identifying a desired position within the flow assembly for a late lean injector , wherein the late lean injector comprises a late lean nozzle and a transfer tube ; b) corresponding to the desired position for the late lean injector, identifying an injection point on the inner radial wall and a late lean nozzle position on the outer radial wall; c) positioning the inner radial wall and the outer radial wall in an unassembled position; d) while the inner radial wall and the outer radial wall are in the unassembled position, forming a hole through the inner radial wall at the injection point and slideably engaging the transfer tube within the hole; e) installing the late lean nozzle in the outer radial wall at the late lean nozzle position; f) positioning the inner radial wall and the outer radial wall in an assembled position; and g) connecting the transfer tube to the late lean nozzle . a) identifying a desired position within the flow assembly for a late lean injector , wherein the late lean injector comprises a late lean nozzle and a transfer tube ; b) corresponding to the desired position for the late lean injector, identifying an injection point on the inner radial wall and a late lean nozzle position on the outer radial wall; c) positioning the inner radial wall and the outer radial wall in an unassembled position; d) while the inner radial wall and the outer radial wall are in the unassembled position, forming a hole through the inner radial wall at the injection point and slideably engaging the transfer tube within the hole; e) installing the late lean nozzle in the outer radial wall at the late lean nozzle position; f) positioning the inner radial wall and the outer radial wall in an assembled position; and g) connecting the transfer tube to the late lean nozzle .
Processing device for processing at least one container , having a transport unit which is coupled magnetically to a stator arrangement and which is able to be moved on a drive surface by way of energization of the stator arrangement , wherein at least one support element defines a working space for processing of the container , wherein the container is able to be coupled to the support element by way of a relative movement of transport unit and support element , wherein the transport unit has at least one container-receiving means which carries the at least one container , characterized in that the at least one container-receiving means is able to be decoupled from the transport unit , and in that the at least one support element , for coupling to the container , acts on the at least one container-receiving means .
Apparatus for post-processing an audio signal, comprising: a time-spectrum-converter for converting the audio signal into a spectral representation comprising a sequence of spectral frames; a prediction analyzer for calculating prediction filter data for a prediction over frequency within a spectral frame; a shaping filter controlled by the prediction filter data for shaping the spectral frame, wherein a transient portion within the spectral frame is enhanced; and a spectrum-time-converter for converting a sequence of spectral frames comprising a shaped spectral frame into a time domain, the apparartus is characterised in that the prediction analyzer is configured to calculate, as the prediction filter data, first prediction filter data for a flattening filter characteristic and second prediction filter data for a shaping filter characteristic , and wherein the shaping filter is configured to use the first prediction filter data and the second prediction filter data . a time-spectrum-converter for converting the audio signal into a spectral representation comprising a sequence of spectral frames; a prediction analyzer for calculating prediction filter data for a prediction over frequency within a spectral frame; a shaping filter controlled by the prediction filter data for shaping the spectral frame, wherein a transient portion within the spectral frame is enhanced; and a spectrum-time-converter for converting a sequence of spectral frames comprising a shaped spectral frame into a time domain, the apparartus is characterised in that the prediction analyzer is configured to calculate, as the prediction filter data, first prediction filter data for a flattening filter characteristic and second prediction filter data for a shaping filter characteristic , and wherein the shaping filter is configured to use the first prediction filter data and the second prediction filter data .
A coating film transfer tool including at least a supply reel having a transfer tape wound thereon, a transfer head that transfers the transfer tape drawn out from the supply reel to a transferred surface, a winding reel that winds the transfer tape after the transfer, and a power transmitting mechanism that interlocks the supply reel and the winding reel in a housing , the tool being characterized by : a base member having the transfer head mounted integrally at a front end thereof and a rotation restraining portion that is capable of directly restraining rotation of the supply reel on a rear half portion thereof, the base member being rotatably supported between the transfer head and the rotation restraining portion by a base member supporting shaft provided at a predetermined position of the housing , and a resilient restoring mechanism interposed between the base member and the housing , wherein the base member rotates and restraint of rotation of the supply reel is released when the transfer head is pressed against the transferred surface, and the base member is restored to an original position by the resilient restoring mechanism to restrain rotation of the supply reel when pressing of the transfer head is released. a base member having the transfer head mounted integrally at a front end thereof and a rotation restraining portion that is capable of directly restraining rotation of the supply reel on a rear half portion thereof, the base member being rotatably supported between the transfer head and the rotation restraining portion by a base member supporting shaft provided at a predetermined position of the housing , and a resilient restoring mechanism interposed between the base member and the housing , wherein the base member rotates and restraint of rotation of the supply reel is released when the transfer head is pressed against the transferred surface, and the base member is restored to an original position by the resilient restoring mechanism to restrain rotation of the supply reel when pressing of the transfer head is released.
Fine metal particles of any one of Ag, Cu or Zn having a dispersing agent, a fatty acid and a glyceride that are coordinated on the surfaces thereof, wherein the dispersing agent has an acid value and an amine value which are both in a range of 0 to 20 mgKOH/g, and when either the acid value or the amine value is 0, the other one is not 0, the dispersing agent has a star polymer structure having, in a monomeric unit, at least either one or preferably both of an acid functional group and a basic functional group, and the fatty acid is myristic acid, stearic acid, oleic acid, palmitic acid or n-decanoic acid. the dispersing agent has an acid value and an amine value which are both in a range of 0 to 20 mgKOH/g, and when either the acid value or the amine value is 0, the other one is not 0, the dispersing agent has a star polymer structure having, in a monomeric unit, at least either one or preferably both of an acid functional group and a basic functional group, and the fatty acid is myristic acid, stearic acid, oleic acid, palmitic acid or n-decanoic acid.
A visual system for a vehicle for displaying a capturing region (A, B, C) outside the vehicle , comprising a capturing unit attached to the vehicle and comprising at least one capturing device for capturing an image of the capturing region (A, B, C), said capturing region comprising at least two capturing sections (A, B, C, D), wherein capturing region (A, B, C) extends outwardly from a side of the vehicle and comprises said two capturing sections (A, B, C, D), a display unit for the vehicle interior including a display portion having predetermined dimensions, and a calculation unit for processing the image captured by the capturing unit and supplying the same to the display unit for display, wherein the calculation unit is adapted to scale the image of the capturing region (A, B, C) captured by the capturing unit at least in an image-angle direction with a scaling factor (n), wherein the display unit is adapted to display the scaled image in the display portion , the scaled image comprising at least two partial images , which correspond to the at least two capturing sections (A, B, C, D), respectively, wherein the scaling factor (n) of the calculation unit is determined dependent on an image angle (φ) of the captured image of the capturing region (A, B, C) and corresponding to a mapping function (f(φ)), and wherein the mapping function (f(φ)) is adapted in accordance with a respective driving situation and comprises at least two different regions in the image angle direction, which regions correspond to the at least two capturing sections, and the curve of the mapping function (f(φ)) shows a jump discontinuity in the transition region between the capturing sections.
A memristor based system for detecting poor-contact of sockets comprising an AC socket connection for connecting line - neutral between a plug and the system; characterized in that the system further comprises a side pad of an AC line for tracking changes in the AC line voltage or current; a series resistor for limiting the current flow on the side pad of the AC line ; a memristor for reading and recording all irregularities on the AC line voltage or current by means of a memristance value; a microprocessor unit for providing an alert on socket error ; wherein the memristor is configured to send the memristance value to the microprocessor unit ; wherein the microprocessor unit is configured for comparing said memristance value with a reference memristance value ; and wherein the microprocessor unit is configured to send an alert on socket error to a user when the microprocessor unit detects a change in the memristance value with respect to the reference memristance value .
A handheld skin treatment device that delivers electromagnetic and/or electrical energy and fluid to a person's skin via a surface region on the device, the device comprising a device body comprising: a head comprising the surface region , and a cartridge containment portion comprising a container holding portion , and a path through the head, the path having a distal end, the distal end having an opening within the surface region; wherein the cartridge containment portion has a locating feature ; and a replaceable fluid cartridge secured in the cartridge containment portion and having a rigid cartridge body, characterized in that the cartridge body further includes a spout extending through the path, wherein the locating feature positions a tip of the spout at the opening. a head comprising the surface region , and a cartridge containment portion comprising a container holding portion , and a path through the head, the path having a distal end, the distal end having an opening within the surface region; wherein the cartridge containment portion has a locating feature ; and a replaceable fluid cartridge secured in the cartridge containment portion and having a rigid cartridge body, characterized in that the cartridge body further includes a spout extending through the path, wherein the locating feature positions a tip of the spout at the opening.
A method of determining the concentration of a species in a portion of a furnace atmosphere, by collecting electromagnetic radiation from inside the furnace , the method comprising the steps: (i) measuring a first intensity I 1 of electromagnetic radiation in the furnace at a first wavelength λ 1 ; (ii) measuring a second intensity I 2 of electromagnetic radiation in the furnace at a second wavelength λ 2 ; (iii) measuring a third intensity I 3 of electromagnetic radiation in the furnace at a third wavelength λ 3 , the third wavelength being selected to be representative of the absorption of electromagnetic radiation by the species; (iv) calculating a fourth intensity I 4 at the third wavelength using the first and second intensities, the fourth intensity being an estimate of the intensity of electromagnetic radiation in the furnace at the third wavelength absent any absorbing species in the furnace atmosphere; and (v) using the third intensity and the fourth intensity to determine a parameter that is proportional to the concentration of absorbing species in the portion of the furnace atmosphere. (i) measuring a first intensity I 1 of electromagnetic radiation in the furnace at a first wavelength λ 1 ; (ii) measuring a second intensity I 2 of electromagnetic radiation in the furnace at a second wavelength λ 2 ; (iii) measuring a third intensity I 3 of electromagnetic radiation in the furnace at a third wavelength λ 3 , the third wavelength being selected to be representative of the absorption of electromagnetic radiation by the species; (iv) calculating a fourth intensity I 4 at the third wavelength using the first and second intensities, the fourth intensity being an estimate of the intensity of electromagnetic radiation in the furnace at the third wavelength absent any absorbing species in the furnace atmosphere; and (v) using the third intensity and the fourth intensity to determine a parameter that is proportional to the concentration of absorbing species in the portion of the furnace atmosphere.