mhurhangee/ep-ind-claims huggingface dataset:
A mobile station apparatus (1, 1A, 1B, 1C) which transmits a periodic sounding reference signal and an aperiodic sounding reference signal to a base station apparatus, the mobile station apparatus comprises: a reception unit configured to receive from the base station apparatus information indicating a first parameter, information indicating a second parameter, information indicating a first radio resource, information indicating a second radio resource, and information requesting transmission of the aperiodic sounding reference signal, a processing unit configured to set a first transmit power for transmission of the periodic sounding reference signal using the first parameter, and a second transmit power for transmission of the aperiodic sounding reference signal using the second parameter, a transmission unit configured to transmit the periodic sounding reference signal to the base station apparatus with the first transmit power using the first radio resource based on the information indicating the first radio resource, and the transmission unit configured to transmit the aperiodic sounding reference signal to the base station apparatus with the second transmit power using the second radio resource upon having received the information requesting transmission of the aperiodic sounding reference signal via a physical downlink control channel, wherein the first parameter includes at least a first P SRS_OFFSET and the second parameter includes at least a second P SRS_OFFSET. the first P SRS_OFFSET and the second P SRS_OFFSET being separately configured by the higher layer. a reception unit configured to receive from the base station apparatus information indicating a first parameter, information indicating a second parameter, information indicating a first radio resource, information indicating a second radio resource, and information requesting transmission of the aperiodic sounding reference signal, a processing unit configured to set a first transmit power for transmission of the periodic sounding reference signal using the first parameter, and a second transmit power for transmission of the aperiodic sounding reference signal using the second parameter, a transmission unit configured to transmit the periodic sounding reference signal to the base station apparatus with the first transmit power using the first radio resource based on the information indicating the first radio resource, and the transmission unit configured to transmit the aperiodic sounding reference signal to the base station apparatus with the second transmit power using the second radio resource upon having received the information requesting transmission of the aperiodic sounding reference signal via a physical downlink control channel, wherein the first parameter includes at least a first P SRS_OFFSET and the second parameter includes at least a second P SRS_OFFSET. the first P SRS_OFFSET and the second P SRS_OFFSET being separately configured by the higher layer.
A drive shaft comprising: a tubular portion extending between axial ends and being hollow, and there being deformations on the tubular portion, said deformations extending for a circumferential extent that is less than 180° about a central axis of said tubular portion, wherein said deformations include at least two axially spaced deformation sets, with a first of said axially spaced deformation sets having deformations extending between first set circumferential ends and said deformations in a second of said axially spaced deformation sets extending between second set circumferential ends and said deformations in said second axially spaced deformation sets extend at least partially in a circumferential space between said first circumferential ends; wherein the drive shaft is formed of a fiber-reinforced polymer matrix material; and characterised in that: there are first deformation sets in at least one axial location between said axial ends of said tubular portion, with a plurality of deformations spaced by a first distance across an axial length of the tubular portion, and wherein there is at least one lesser deformation portion wherein said deformations are spaced by a distance greater than said first axial distance. a tubular portion extending between axial ends and being hollow, and there being deformations on the tubular portion, said deformations extending for a circumferential extent that is less than 180° about a central axis of said tubular portion, wherein said deformations include at least two axially spaced deformation sets, with a first of said axially spaced deformation sets having deformations extending between first set circumferential ends and said deformations in a second of said axially spaced deformation sets extending between second set circumferential ends and said deformations in said second axially spaced deformation sets extend at least partially in a circumferential space between said first circumferential ends; wherein the drive shaft is formed of a fiber-reinforced polymer matrix material; and characterised in that: there are first deformation sets in at least one axial location between said axial ends of said tubular portion, with a plurality of deformations spaced by a first distance across an axial length of the tubular portion, and wherein there is at least one lesser deformation portion wherein said deformations are spaced by a distance greater than said first axial distance.
A fusion protein comprising a structure of A n − B − A x − C − A m y wherein each A independently comprises a peptide or protein domain that binds an analyte of interest, wherein A comprises an antibody, antibody fragment, peptide aptamer, peptide antigen, or peptide antigen fragment, wherein the peptide antigen or peptide antigen fragment preferably comprises an antigenic determinant or epitope; B is an enzyme or has enzymatic activity, and comprises an entity that can produce a detectable signal; C is an inhibitor of B, and comprises an entity that, when A is not bound to the analyte of interest, binds to B and modulates the signal production by B; n and m are each independently 0 or at least 1; x is an integer of at least 1; y is an integer of at least 1; "-" represents a covalent bond or a linker comprising or consisting of one or more amino acids; wherein B and C each independently comprises a peptide or protein domain, wherein the length of the linker between the peptides or protein domains is selected such that it allows the interaction of B and C when A is not bound to the analyte of interest, and it prevents the interaction of B and C when A is bound to the analyte of interest. each A independently comprises a peptide or protein domain that binds an analyte of interest, wherein A comprises an antibody, antibody fragment, peptide aptamer, peptide antigen, or peptide antigen fragment, wherein the peptide antigen or peptide antigen fragment preferably comprises an antigenic determinant or epitope; B is an enzyme or has enzymatic activity, and comprises an entity that can produce a detectable signal; C is an inhibitor of B, and comprises an entity that, when A is not bound to the analyte of interest, binds to B and modulates the signal production by B; n and m are each independently 0 or at least 1; x is an integer of at least 1; y is an integer of at least 1; "-" represents a covalent bond or a linker comprising or consisting of one or more amino acids; wherein B and C each independently comprises a peptide or protein domain,
Drive belt for a traction mechanism drive, having a radially externally arranged top layer composed of a fiber-containing elastomer or of an elastomer comprising a fiber mesh, having a radially centrally arranged tension member layer composed of a wound tension strand or a plurality of circumferentially oriented tension strands, and a radially internally arranged substructure composed of an elastomer, wherein at least one wedge-shaped rib is integrally formed in the substructure, a coating layer composed of a circumferentially open fiber mesh being applied to the outer surfaces of said wedge-shaped rib, characterized in that the circumferential ends (12, 14) of the coating layer and a parting joint, which is filled by the elastomer of the substructure, between said circumferential ends (12, 14) of the coating layer are covered with a transverse strip composed of a vulcanizable material, wherein said vulcanizable material has a reduced friction coefficient in relation to the elastomer of the substructure.
An algorithm-based audio optimization method, wherein comprising: converting an original audio file on a time domain into an audio signal on a frequency domain through a transform in advance; extracting and matching a frequency range and an amplitude information of the audio signal with a plurality of frequency ranges and amplitude information of a plurality of different types of existing audio test standard sound sources, and thereby determining a type of the audio signal; and according to the type of the audio signal, transforming the audio signal through a matched and corresponding frequency mapping function in a function library to obtain a processed audio file, before obtaining an optimized audio file by an inverse transform of the processed audio file, characterized in that the transform is Fourier transform and the inverse transform is inverse Fourier transform; the function library comprises a first frequency mapping function and a second frequency mapping function, the first frequency mapping function and the second frequency mapping function are applied to adjust the frequency of the audio signal through making a targeted change to the audio signal frequency according to a distribution range of the audio signal frequency. converting an original audio file on a time domain into an audio signal on a frequency domain through a transform in advance; extracting and matching a frequency range and an amplitude information of the audio signal with a plurality of frequency ranges and amplitude information of a plurality of different types of existing audio test standard sound sources, and thereby determining a type of the audio signal; and according to the type of the audio signal, transforming the audio signal through a matched and corresponding frequency mapping function in a function library to obtain a processed audio file, before obtaining an optimized audio file by an inverse transform of the processed audio file, characterized in that the transform is Fourier transform and the inverse transform is inverse Fourier transform; the function library comprises a first frequency mapping function and a second frequency mapping function, the first frequency mapping function and the second frequency mapping function are applied to adjust the frequency of the audio signal through making a targeted change to the audio signal frequency according to a distribution range of the audio signal frequency.
A wind turbine with a base assembly which has a machine carrier, preferably an axle journal connected to the machine carrier, a rotor hub which is rotatably mounted on the base assembly, a generator which is operatively connected to the rotor hub, and a braking and locking device, wherein the braking and locking device has at least one brake body and at least one actuator which is designed to move the brake body back and forth relative to a braking surface, wherein the braking and locking device is fastened to the base assembly, in particular to the axle journal; and the braking surface is formed on the rotor hub, characterized in that the brake body is arranged between the axle journal and the rotor hub and engages with an effective surface on the inside of the rotor hub, wherein the brake body has a guide surface which faces toward the axle journal and is movably mounted on the axle journal characterized in that the brake body is arranged between the axle journal and the rotor hub and engages with an effective surface on the inside of the rotor hub, wherein the brake body has a guide surface which faces toward the axle journal and is movably mounted on the axle journal
A method for making a flexible mat, the method characterized by: providing a plurality of transverse rows of mold cavities (24, 124); providing a panel having a row of slots; positioning the panel above the mold cavities (24, 124) and aligning the slots of the panel with the mold cavities (24, 124); placing a sheet of mesh material between the panel and the mold cavities (24, 124); depositing a hardenable paste through the row of slots and into mold cavities (24, 124) such that the sheet of mesh material becomes embedded in the hardenable paste over the mold cavities (24, 124); allowing the hardenable paste to harden into blocks held together by the sheet of mesh material, thereby forming a flexible mat consisting of the blocks held together by the mesh material; removing the flexible mat from between the panel and the mold cavities (24, 124); and separating the flexible mat from the mold cavities (24, 124). providing a plurality of transverse rows of mold cavities (24, 124); providing a panel having a row of slots; positioning the panel above the mold cavities (24, 124) and aligning the slots of the panel with the mold cavities (24, 124); placing a sheet of mesh material between the panel and the mold cavities (24, 124); depositing a hardenable paste through the row of slots and into mold cavities (24, 124) such that the sheet of mesh material becomes embedded in the hardenable paste over the mold cavities (24, 124); allowing the hardenable paste to harden into blocks held together by the sheet of mesh material, thereby forming a flexible mat consisting of the blocks held together by the mesh material; removing the flexible mat from between the panel and the mold cavities (24, 124); and separating the flexible mat from the mold cavities (24, 124).
A dry disinfection device for disinfecting air, the device comprising at least - a process chamber, wherein the process chamber is part of a ventilation duct and wherein the air to be decontaminated is guided through the process chamber and wherein the process chamber comprises at least a UV radiator arranged to emit at a first wavelength and arranged to produce ozone, the process chamber further comprising a UV radiator arranged to emit at a second wavelength, which second wavelength is different from the first wavelength; - an ionizer arranged to generate ions for the process chamber, - a diffusion collector arranged to remove particles from the air, characterized in that the process chamber is dimensioned by the following dimensioning rules based on the measurements of the device and the duct and a retention time, wherein the equation is Retention time = L ∗ A V, wherein, retention time stands for a time of air flowing in the process chamber, and wherein the retention time is 0.4 - 2 seconds, L stands for the length of the process chamber, A stands for the cross-sectional area in the process chamber per the cross-sectional area in the duct, and V stands for a rate of the air flowing through the duct and wherein A≥1 and 0 ≤ V ≤ 10 m/s. - a process chamber, wherein the process chamber is part of a ventilation duct and wherein the air to be decontaminated is guided through the process chamber and wherein the process chamber comprises at least a UV radiator arranged to emit at a first wavelength and arranged to produce ozone, the process chamber further comprising a UV radiator arranged to emit at a second wavelength, which second wavelength is different from the first wavelength; - an ionizer arranged to generate ions for the process chamber, - a diffusion collector arranged to remove particles from the air, characterized in that the process chamber is dimensioned by the following dimensioning rules based on the measurements of the device and the duct and a retention time, wherein the equation is Retention time = L ∗ A V, wherein, retention time stands for a time of air flowing in the process chamber, and wherein the retention time is 0.4 - 2 seconds, L stands for the length of the process chamber, A stands for the cross-sectional area in the process chamber per the cross-sectional area in the duct, and V stands for a rate of the air flowing through the duct and wherein A≥1 and 0 ≤ V ≤ 10 m/s. retention time stands for a time of air flowing in the process chamber, and wherein the retention time is 0.4 - 2 seconds, L stands for the length of the process chamber, A stands for the cross-sectional area in the process chamber per the cross-sectional area in the duct, and V stands for a rate of the air flowing through the duct and wherein A≥1 and 0 ≤ V ≤ 10 m/s.
A jelly preparation comprising: water, a gelatin, a drug, and a trivalent metal ion, wherein the water, the gelatin, the drug, and the trivalent metal ion are all contained in a single thin film, and wherein a moisture content of the jelly preparation is 5 to 90% by weight of the whole amount of the jelly preparation. water, a gelatin, a drug, and a trivalent metal ion, wherein the water, the gelatin, the drug, and the trivalent metal ion are all contained in a single thin film, and wherein a moisture content of the jelly preparation is 5 to 90% by weight of the whole amount of the jelly preparation.
A method for receiving broadcast signals, the method comprising; receiving at least two broadcast signals and demodulating the received broadcast signals by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein each of the demodulated at least two broadcast signals includes at least one signal frame, wherein the at least one signal frame includes a preamble and data symbols characterised in that: the demodulating further includes obtaining a P1 symbol and an AP1 symbol from the preamble, wherein the P1 symbol includes basic transmission parameters to detect the at least one signal frame and the AP1 symbol includes additional transmission parameters, wherein the AP1 symbol is located after the P1 symbol in a time domain, wherein the preamble includes at least one P2 symbol carrying signaling information for the data symbols; frequency de-interleaving each of the demodulated broadcast signals; parsing the at least one signal frame from each of the frequency de-interleaved broadcast signals; decoding at least one P2 symbol for obtaining the signaling information, wherein the signaling information is processed by scrambling; decoding Physical Layer Pipe, PLP, data in the data symbols of the parsed at least one signal frame, wherein each PLP corresponding to the PLP data includes at least one service or at least one service component, wherein the decoding further comprises; time de-interleaving the PLP data in the parsed at least one signal frame; Multi-Input Multi-Output, MIMO, processing the time de-interleaved PLP data; and Quadrature Amplitude Modulation, QAM, de-mapping the MIMO processed PLP data, wherein PLP data being different from the MIMO processed PLP data is processed by a Multi-Input Single-Output, MISO, scheme.
An optical microphone, comprising: - a light source configured to emit a light beam, and - an acoustic sensor including single-wall nanotubes, wherein the acoustic sensor deflects in response to pressure waves and is configured to reflect the light beam emitted from the light source. - a light source configured to emit a light beam, and - an acoustic sensor including single-wall nanotubes, wherein the acoustic sensor deflects in response to pressure waves and is configured to reflect the light beam emitted from the light source.
A method to morph window controls, comprising: providing, using one or more processors, a plurality of window controls associated with a window of a computer interface, each window control of the plurality of window controls being configured to perform an original function, the original function being associated with a task to control the window; activating a morphing function when a user selects a first window control of the plurality of window controls; in response to the activated morphing function, converting, by the one or more processors, the original function associated with a second window control of the plurality of window controls to an alternate function, wherein the alternate function performs a different task than the original function for the second window control; and in response to the activated morphing function, converting an original graphic associated with the original function of the second window control to an alternate graphic associated with the alternate function of the second window control by implementing an animation depicting the original graphic morphing into the alternate graphic. providing, using one or more processors, a plurality of window controls associated with a window of a computer interface, each window control of the plurality of window controls being configured to perform an original function, the original function being associated with a task to control the window; activating a morphing function when a user selects a first window control of the plurality of window controls; in response to the activated morphing function, converting, by the one or more processors, the original function associated with a second window control of the plurality of window controls to an alternate function, wherein the alternate function performs a different task than the original function for the second window control; and in response to the activated morphing function, converting an original graphic associated with the original function of the second window control to an alternate graphic associated with the alternate function of the second window control by implementing an animation depicting the original graphic morphing into the alternate graphic.
A flexible cable comprising: a plurality of helical links (106; 206), each link (106; 206) coupled to one another, and each link having: a body that extends helically about a central axis (A-A) of the link, the body having an inner surface and an outer surface, characterized by further comprising a male protrusion extending from the inner surface of the body at both ends (142, 144) of the body, wherein each protrusion defines a hole formed through the protrusion, each hole being coaxial with the body, wherein the body defines a female recess on the inner surface of the body corresponding to each protrusion, the recesses located at both ends (142, 144) of the body, wherein the body has a central portion located on the inner surface between the pairs of protrusions and recesses (106b, 106d), the central portion extending about the central axis (A-A) and being spaced therefrom and having a cavity defined between the pairs of protrusions and recesses (106b, 106d); and a string extending through the holes formed through each protrusion and coupling the plurality of links (106; 206). a body that extends helically about a central axis (A-A) of the link, the body having an inner surface and an outer surface, characterized by further comprising a male protrusion extending from the inner surface of the body at both ends (142, 144) of the body, wherein each protrusion defines a hole formed through the protrusion, each hole being coaxial with the body, wherein the body defines a female recess on the inner surface of the body corresponding to each protrusion, the recesses located at both ends (142, 144) of the body, wherein the body has a central portion located on the inner surface between the pairs of protrusions and recesses (106b, 106d), the central portion extending about the central axis (A-A) and being spaced therefrom and having a cavity defined between the pairs of protrusions and recesses (106b, 106d); and a string extending through the holes formed through each protrusion and coupling the plurality of links (106; 206).