mhurhangee/patent-ind-claim-en huggingface dataset:
A method of receiving a broadcast signal from a transmitter, the method comprising: receiving the broadcast signal including a signal frame, wherein the signal frame includes preamble, and wherein the preamble includes control information indicating whether at the transmitter a frequency interleaving is enabled or not; Orthogonal Frequency Division Multiplexing, OFDM, demodulating the received broadcast signal to provide demodulated data; selectively performing frequency deinterleaving on the demodulated data in the signal frame based on the control information, wherein the frequency interleaving is performed using a frequency deinterleaver; de-mapping Physical Layer Pipe, PLP, data in the signal frame; decoding the de-mapped PLP data; and outputting a data stream comprising the decoded PLP data, wherein when the control information has a first value, the frequency deinterleaver is enabled and when the control information has a second value, the frequency deinterleaver is disabled and no frequency deinterleaving is performed. receiving the broadcast signal including a signal frame, wherein the signal frame includes preamble, and wherein the preamble includes control information indicating whether at the transmitter a frequency interleaving is enabled or not; Orthogonal Frequency Division Multiplexing, OFDM, demodulating the received broadcast signal to provide demodulated data; selectively performing frequency deinterleaving on the demodulated data in the signal frame based on the control information, wherein the frequency interleaving is performed using a frequency deinterleaver; de-mapping Physical Layer Pipe, PLP, data in the signal frame; decoding the de-mapped PLP data; and outputting a data stream comprising the decoded PLP data, wherein when the control information has a first value, the frequency deinterleaver is enabled and when the control information has a second value, the frequency deinterleaver is disabled and no frequency deinterleaving is performed. Orthogonal Frequency Division Multiplexing, OFDM, demodulating the received broadcast signal to provide demodulated data; selectively performing frequency deinterleaving on the demodulated data in the signal frame based on the control information, wherein the frequency interleaving is performed using a frequency deinterleaver; de-mapping Physical Layer Pipe, PLP, data in the signal frame; decoding the de-mapped PLP data; and outputting a data stream comprising the decoded PLP data, wherein when the control information has a first value, the frequency deinterleaver is enabled and when the control information has a second value, the frequency deinterleaver is disabled and no frequency deinterleaving is performed.
A method for estimating in-situ stress of a non-data rich interval of a wellbore having only drilling response data including rate of penetration, weight on bit, and rate of rotation, comprising: a) obtaining drilling response data, including rate of penetration, weight on bit, and rate of rotation, of a data rich interval of a wellbore with available data including log data and/or image data; b) estimating relative rock strength as a composite value that includes in-situ stress and rock strength defined as ψ β W + γ N − η + ζ R − κ wherein ψ, β, γ, η, ζ, and κ are coefficients correlating rock strength to unconfined compressive strength, R is rate of penetration, N is rotary speed, and W is weight on bit, and wherein ψ, β, γ, η, ζ, and κ are varied to match log or core data based rock strength; c) estimating a Poisson's ratio from the relative rock strength; d) generating a stress model that includes uniaxial strain model using the Poisson's ratio, or generating a stress model that includes horizontal maximum and minimum stress models that use the Poisson's ratio; e) verifying the stress model with the available data; and f) applying the stress models in a non-data rich interval; and g) using the non-data rich interval using the estimate of in-situ stress to plan and execute a hydraulic stimulation operation in the non-data rich interval. a) obtaining drilling response data, including rate of penetration, weight on bit, and rate of rotation, of a data rich interval of a wellbore with available data including log data and/or image data; b) estimating relative rock strength as a composite value that includes in-situ stress and rock strength defined as ψ β W + γ N − η + ζ R − κ wherein ψ, β, γ, η, ζ, and κ are coefficients correlating rock strength to unconfined compressive strength, R is rate of penetration, N is rotary speed, and W is weight on bit, and wherein ψ, β, γ, η, ζ, and κ are varied to match log or core data based rock strength; c) estimating a Poisson's ratio from the relative rock strength; d) generating a stress model that includes uniaxial strain model using the Poisson's ratio, or generating a stress model that includes horizontal maximum and minimum stress models that use the Poisson's ratio; e) verifying the stress model with the available data; and f) applying the stress models in a non-data rich interval; and g) using the non-data rich interval using the estimate of in-situ stress to plan and execute a hydraulic stimulation operation in the non-data rich interval.
A network access device, comprising: at least one processor ; a display communicatively coupled to the at least one processor , wherein the at least one processor is configured to cause generation of a graphical user interface ("GUI") on the display, the GUI having a graphical depiction that simulates a translucence level of an orthodontic appliance , wherein the at least one processor is configured to adjust the graphical depiction of the translucence level based on a user input; and a communication interface communicatively coupled to the at least one processor , wherein the at least one processor is configured to cause a user selected translucence level to be sent via the communication interface to an external device for determination of manufacturing parameters for the orthodontic appliance. at least one processor ; a display communicatively coupled to the at least one processor , wherein the at least one processor is configured to cause generation of a graphical user interface ("GUI") on the display, the GUI having a graphical depiction that simulates a translucence level of an orthodontic appliance , wherein the at least one processor is configured to adjust the graphical depiction of the translucence level based on a user input; and a communication interface communicatively coupled to the at least one processor , wherein the at least one processor is configured to cause a user selected translucence level to be sent via the communication interface to an external device for determination of manufacturing parameters for the orthodontic appliance.
A method for producing a motor vehicle floor mat , said method comprising the following steps: - providing a backing web based on thermoplastic polyester and/or modified thermoplastic polyester fibers, - stitching loops of thermoplastic polyester-based yarns onto said web so as to produce a tufted web, - depositing on the reverse side of said tufted web a layer securing said loops to said web, said layer being based on thermoplastic polyester modified so as to have a lower melting point than that of the polyester of said support web, said layer being deposited by extrusion followed by calendering, said process being such that, prior to the deposition of said fastening layer, said tufted web is heated on said reverse side to the melting temperature of the polyester, so as to melt the part of said loops in contact with said web in order to fasten them. - providing a backing web based on thermoplastic polyester and/or modified thermoplastic polyester fibers, - stitching loops of thermoplastic polyester-based yarns onto said web so as to produce a tufted web, - depositing on the reverse side of said tufted web a layer securing said loops to said web, said layer being based on thermoplastic polyester modified so as to have a lower melting point than that of the polyester of said support web, said layer being deposited by extrusion followed by calendering,
A closure that includes a closure outer shell including an outer shell base wall , a plug seal extending axially from the outer shell base wall and including an annular wall and an annular enlargement extending radially outwardly from the annular wall and having an outer surface, and an annular outer skirt extending axially from the outer shell base wall radially outward of the plug seal and having at least one internal thread segment , wherein the annular outer skirt includes an axially lower end and extends axially continuously from the outer shell base wall to the axially lower end, and an inner shell including an inner shell base wall having a central passage , and an annular skirt extending axially from the base wall radially outward of the central passage and having an outer surface and at least one external thread segment projecting from the outer surface, wherein the plug seal extends through the central passage of the inner shell base wall and wherein the at least one internal thread segment is in threaded engagement with the at least one external thread segment of the inner shell, characterised in that the outer shell annular enlargement has an outer diameter greater than the inner diameter of the central passage, the annular outer skirt is axially longer than the plug seal, and the annular enlargement has at least one vent relief therein.
A gas piston assembly suitable for use within a modular firearm, the gas piston assembly comprising: a) a piston apparatus having a first end and a second end wherein the piston apparatus is configured to be coaxially mounted onto a barrel of the modular firearm; b) a piston bonnet configured to be coaxially mounted onto the barrel , the piston bonnet having a bonnet end wall with a bonnet aperture defined therethrough and a bonnet sidewall configured to slidably receive the second end of the piston apparatus therein, wherein a piston gap is defined between the second end of the piston apparatus and the bonnet end wall and is in communication with the bonnet aperture ; and c) a selectively adjustable gas regulator in communication with the bonnet aperture and configured to selectively occlude the bonnet aperture in fully open, partially open and fully closed orientations. a) a piston apparatus having a first end and a second end wherein the piston apparatus is configured to be coaxially mounted onto a barrel of the modular firearm; b) a piston bonnet configured to be coaxially mounted onto the barrel , the piston bonnet having a bonnet end wall with a bonnet aperture defined therethrough and a bonnet sidewall configured to slidably receive the second end of the piston apparatus therein, wherein a piston gap is defined between the second end of the piston apparatus and the bonnet end wall and is in communication with the bonnet aperture ; and c) a selectively adjustable gas regulator in communication with the bonnet aperture and configured to selectively occlude the bonnet aperture in fully open, partially open and fully closed orientations.
A pump assembly comprising - a rotor axle extending along a rotor axis (R), - an impeller fixed to the rotor axle , - a pump housing accommodating the impeller , - a drive motor comprising a stator and a rotor , wherein the rotor is fixed to the rotor axle for driving the impeller , - a rotor can accommodating the rotor , wherein the rotor can comprises a rotor can flange , - a stator housing accommodating the stator , - a first radial bearing ring being in sliding contact with the rotor axle , and - a bearing retainer comprising a bearing retainer flange and embracing the first radial bearing ring , wherein the rotor can flange comprises a stop surface facing away from the impeller , wherein the bearing retainer is resiliently spring-loaded for biasing the stop surface of the rotor can flange axially away from the impeller against a locking ring , characterised in that the bearing retainer flange is resiliently deformable between a first relaxed state and a second spring-loaded state, wherein the bearing retainer flange comprises a bearing retainer flange section having an essentially conical shape, wherein an apex angle (α ; α = 180° - 2β) of the bearing retainer flange section is smaller in the first relaxed state than in the second spring-loaded state. - a rotor axle extending along a rotor axis (R), - an impeller fixed to the rotor axle , - a pump housing accommodating the impeller , - a drive motor comprising a stator and a rotor , wherein the rotor is fixed to the rotor axle for driving the impeller , - a rotor can accommodating the rotor , wherein the rotor can comprises a rotor can flange , - a stator housing accommodating the stator , - a first radial bearing ring being in sliding contact with the rotor axle , and - a bearing retainer comprising a bearing retainer flange and embracing the first radial bearing ring ,
A multi-mode radio frequency identification (RFID) tag comprises: a configurable coupling circuit that, when the multi-mode RFID tag is in a far field mode, provides electromagnetic coupling to an RFID reader via an antenna and, when the multi-mode RFID tag is in a near field mode, provides radio frequency (RF) coupling to the RFID reader via an inductor , the coupling circuit acting as an impedance circuit for the antenna , wherein the inductor provides the electromagnetic coupling in the near field mode and an inductance value for impedance matching in the far field mode; a power generating and signal detection module coupled to the configurable coupling circuit , wherein the power generating and signal detection module converts an inbound receive signal into a supply voltage and recovers encoded data from the inbound receive signal; a baseband processing module coupled to: decode the encoded data to produce a decoded signal; process the decoded signal; when the processing of the decoded signal indicates generating a response signal, generate the response signal; and encode the response signal to produce outbound encoded data; and a transmit section coupled to the configurable coupling circuit , wherein the transmit section converts the outbound encoded data into an outbound transmit signal. a configurable coupling circuit that, when the multi-mode RFID tag is in a far field mode, provides electromagnetic coupling to an RFID reader via an antenna and, when the multi-mode RFID tag is in a near field mode, provides radio frequency (RF) coupling to the RFID reader via an inductor , the coupling circuit acting as an impedance circuit for the antenna , wherein the inductor provides the electromagnetic coupling in the near field mode and an inductance value for impedance matching in the far field mode; a power generating and signal detection module coupled to the configurable coupling circuit , wherein the power generating and signal detection module converts an inbound receive signal into a supply voltage and recovers encoded data from the inbound receive signal; a baseband processing module coupled to: decode the encoded data to produce a decoded signal; process the decoded signal; when the processing of the decoded signal indicates generating a response signal, generate the response signal; and encode the response signal to produce outbound encoded data; and a transmit section coupled to the configurable coupling circuit , wherein the transmit section converts the outbound encoded data into an outbound transmit signal. decode the encoded data to produce a decoded signal; process the decoded signal; when the processing of the decoded signal indicates generating a response signal, generate the response signal; and encode the response signal to produce outbound encoded data; and a transmit section coupled to the configurable coupling circuit , wherein the transmit section converts the outbound encoded data into an outbound transmit signal.
A method for leak detection on at least one flexible test piece in a film chamber , comprising the following steps: introducing the at least one flexible test piece into a film chamber with at least one film , lowering the pressure in the film chamber outside the at least one flexible test piece , and detecting a leak in the at least one flexible test piece by monitoring the spatial change of the at least one film of the film chamber , transferring the outer contour of the at least one flexible test piece to at least one portion of the at least one film by lowering the pressure in the film chamber , capturing said contour of the at least one film by means of an image capturing device which is adapted to capture images of the film contour, and comparing the captured images of the contour with reference images of said contour in the case of tight flexible test pieces , characterized in that the portion of the at least one film captured by the image capturing device is provided with a grid , which may be dots arranged in a pattern, the position of which is monitored and evaluated. introducing the at least one flexible test piece into a film chamber with at least one film , lowering the pressure in the film chamber outside the at least one flexible test piece , and detecting a leak in the at least one flexible test piece by monitoring the spatial change of the at least one film of the film chamber , transferring the outer contour of the at least one flexible test piece to at least one portion of the at least one film by lowering the pressure in the film chamber , capturing said contour of the at least one film by means of an image capturing device which is adapted to capture images of the film contour, and comparing the captured images of the contour with reference images of said contour in the case of tight flexible test pieces , characterized in that the portion of the at least one film captured by the image capturing device is provided with a grid , which may be dots arranged in a pattern, the position of which is monitored and evaluated.
An underwater storage tank for a working liquid comprising a flexible multilayer tank containing said working liquid , said flexible multilayer tank being externally in contact with sea water characterized in that said flexible multilayer tank comprises at least one internal electrical insulating layer in contact with said working fluid , at least one external electrical insulating layer in contact with sea water, at least one intermediate electric conductive layer sealed between said at least one internal electrical insulating layer and said at least one external electrical insulating layer , at least one first electrical connection means connected to said intermediate conductive layer , said first electrical connection means being connectable to an electrical grounded measurement instrument to assess the physical integrity of said flexible multilayer tank . said flexible multilayer tank comprises at least one internal electrical insulating layer in contact with said working fluid , at least one external electrical insulating layer in contact with sea water, at least one intermediate electric conductive layer sealed between said at least one internal electrical insulating layer and said at least one external electrical insulating layer , at least one first electrical connection means connected to said intermediate conductive layer , said first electrical connection means being connectable to an electrical grounded measurement instrument to assess the physical integrity of said flexible multilayer tank .
Silver(I) complex or pharmaceutically acceptable salts, or polymorphs thereof, for use in the treatment and/or prevention of cancer in a subject, wherein the silver (I) complex is of the general Formula (I): [(Ag)X(L) m ] n ..... (I) , wherein: Ag is silver in its oxidation state of one; X is a coordinating or non-coordinating anion selected from the group consisting of SCN - and NO 3 ; L is a mono-dentate phosphine ligand (PR 3 ); m is an integer from 1 to 4, both inclusive; n is an integer from equal or greater than 1; and in case X is SCN - , R is a C6 aryl group or substituted C6 aryl group, or in case X is NO3-, R is a C6 aryl group. Ag is silver in its oxidation state of one; X is a coordinating or non-coordinating anion selected from the group consisting of SCN - and NO 3 ; L is a mono-dentate phosphine ligand (PR 3 ); m is an integer from 1 to 4, both inclusive; n is an integer from equal or greater than 1; and in case X is SCN - , R is a C6 aryl group or substituted C6 aryl group, or in case X is NO3-, R is a C6 aryl group.
A forward facing sensing system for a vehicle , the vehicle having a windshield , said forward facing sensing system comprising: a radar sensor device , wherein said radar sensor device has a sensing direction forward of the vehicle; a forward facing image sensor having a forward field of view; a control responsive to an output of said radar sensor device and responsive to an output of said forward facing image sensor; characterized in that both said radar sensor device and said image sensor are disposed within a windshield electronics module that is removably installed within the vehicle cabin at an upper region of the vehicle windshield and that may be removed therefrom as a self-contained unit, such as for service or replacement; at least one of (a) responsive to said forward facing image sensor detecting an object forward of the vehicle, said control is operable to enhance interrogation by said radar sensor device of the detected object and wherein the enhanced interrogation by said radar sensor device comprises a digital beam forming technique for interrogating the region in front of the vehicle where the object is detected, and (b) responsive to said forward facing image sensor detecting an object forward of the vehicle, said control is operable to enhance interrogation by said radar sensor device of the detected object and wherein the enhanced interrogation by said radar sensor device comprises a digital beam steering technique for interrogating the region in front of the vehicle where the object is detected. a radar sensor device , wherein said radar sensor device has a sensing direction forward of the vehicle; a forward facing image sensor having a forward field of view; a control responsive to an output of said radar sensor device and responsive to an output of said forward facing image sensor; characterized in that both said radar sensor device and said image sensor are disposed within a windshield electronics module that is removably installed within the vehicle cabin at an upper region of the vehicle windshield and that may be removed therefrom as a self-contained unit, such as for service or replacement; at least one of (a) responsive to said forward facing image sensor detecting an object forward of the vehicle, said control is operable to enhance interrogation by said radar sensor device of the detected object and wherein the enhanced interrogation by said radar sensor device comprises a digital beam forming technique for interrogating the region in front of the vehicle where the object is detected, and (b) responsive to said forward facing image sensor detecting an object forward of the vehicle, said control is operable to enhance interrogation by said radar sensor device of the detected object and wherein the enhanced interrogation by said radar sensor device comprises a digital beam steering technique for interrogating the region in front of the vehicle where the object is detected.