mhurhangee/ep-ind-claims huggingface dataset:
A circuitry for determining an adaptive filter step size for processing a received signal, the circuitry comprising: an adaptive filter circuit configured to receive a first input signal and produce a variable cancellation signal, wherein a step size for each iteration of the variable cancellation signal is the lesser of: a first step size option which monotonically decreases over the number of iterations; or a second step size option calculated from a power of the first input signal; and an evaluation circuit configured to subtract the variable cancellation signal from the received signal to generate a second input signal, wherein the adaptive filter circuit adjusts the variable cancellation signal based on the second input signal. an adaptive filter circuit configured to receive a first input signal and produce a variable cancellation signal, wherein a step size for each iteration of the variable cancellation signal is the lesser of: a first step size option which monotonically decreases over the number of iterations; or a second step size option calculated from a power of the first input signal; and an evaluation circuit configured to subtract the variable cancellation signal from the received signal to generate a second input signal, wherein the adaptive filter circuit adjusts the variable cancellation signal based on the second input signal. a first step size option which monotonically decreases over the number of iterations; or a second step size option calculated from a power of the first input signal; and an evaluation circuit configured to subtract the variable cancellation signal from the received signal to generate a second input signal, wherein the adaptive filter circuit adjusts the variable cancellation signal based on the second input signal.
A method performed in a radio access node for handling a wireless device in a wireless communication network, which radio access node serves a cell in the wireless communication network; the method comprising: - receiving a paging request for the wireless device from a network node (13,14), which paging request comprises an indication, which indication indicates that the paging request is associated with a function relating to the wireless device, wherein the function is localization of the wireless device and the function requires no connection between the wireless device and the radio access node to be set up; - paging (402,502) the wireless device in the cell with a page message; - receiving a response from the wireless device in response to the page message; and characterised by: - rejecting (406,505) a connection establishment, from the wireless device to the radio access node, based on the indication in the received paging request. - receiving a paging request for the wireless device from a network node (13,14), which paging request comprises an indication, which indication indicates that the paging request is associated with a function relating to the wireless device, wherein the function is localization of the wireless device and the function requires no connection between the wireless device and the radio access node to be set up; - paging (402,502) the wireless device in the cell with a page message; - receiving a response from the wireless device in response to the page message; and characterised by: - rejecting (406,505) a connection establishment, from the wireless device to the radio access node, based on the indication in the received paging request. - rejecting (406,505) a connection establishment, from the wireless device to the radio access node, based on the indication in the received paging request.
Method for detecting a disruptor of magnetic-field amplitude in proximity to a mono-axial magnetic-field source, this method comprising the following steps: a) emitting at least three magnetic fields B 11, B 12... B 1j of different frequencies f 1, f 2,... f j from the same mono-axial magnetic-field source, the amplitudes of the magnetic fields emitted at any two different frequencies being related to each other by a preset ratio, b) measuring the amplitude of these magnetic fields of different frequencies using the same sensor, and c) signalling an amplitude disruptor if a ratio between two of said measured amplitudes diverges from a preset threshold of the preset ratio that relates the amplitudes of the emitted magnetic fields, at said two different emission frequencies, and, in the contrary case, not signalling characterized in that: - in step a), the amplitudes of the emitted magnetic fields B 11, B 12... B 1j are all equal so that the ratios between the amplitudes of the magnetic fields emitted at the various frequencies are all equal to one, and - step c) comprises verifying that the ratios between the amplitudes measured for various frequencies are constant whatever the frequency. a) emitting at least three magnetic fields B 11, B 12... B 1j of different frequencies f 1, f 2,... f j from the same mono-axial magnetic-field source, the amplitudes of the magnetic fields emitted at any two different frequencies being related to each other by a preset ratio, b) measuring the amplitude of these magnetic fields of different frequencies using the same sensor, and c) signalling an amplitude disruptor if a ratio between two of said measured amplitudes diverges from a preset threshold of the preset ratio that relates the amplitudes of the emitted magnetic fields, at said two different emission frequencies, and, in the contrary case, not signalling - in step a), the amplitudes of the emitted magnetic fields B 11, B 12... B 1j are all equal so that the ratios between the amplitudes of the magnetic fields emitted at the various frequencies are all equal to one, and - step c) comprises verifying that the ratios between the amplitudes measured for various frequencies are constant whatever the frequency.
A method comprising: performing, by a wireless device, a first listen-before-talk, LBT, procedure for transmission of a first preamble of a first message; performing, by the wireless device, a second LBT procedure for transmission of a first transport block of the first message; based on a clear channel indicated by one of the first LBT procedure or the second LBT procedure and a busy channel indicated by another of the first LBT procedure or the second LBT procedure, transmitting, using a transmission power, one of the first preamble or the first transport block; based on the transmission power and based on a determination that a response to the one of the first preamble or the first transport block has not been received by a time duration, determining a ramped transmission power; and transmitting, using the ramped transmission power, a second preamble of a retransmission of the first message. performing, by a wireless device, a first listen-before-talk, LBT, procedure for transmission of a first preamble of a first message; performing, by the wireless device, a second LBT procedure for transmission of a first transport block of the first message; based on a clear channel indicated by one of the first LBT procedure or the second LBT procedure and a busy channel indicated by another of the first LBT procedure or the second LBT procedure, transmitting, using a transmission power, one of the first preamble or the first transport block; based on the transmission power and based on a determination that a response to the one of the first preamble or the first transport block has not been received by a time duration, determining a ramped transmission power; and transmitting, using the ramped transmission power, a second preamble of a retransmission of the first message.
A router chip comprising: a plurality of input-output, IO, interfaces, disposed proximate to a periphery of the router chip; each IO interface comprising an IO input and an IO output; a first plurality of interconnect paths, configured in a first two-dimensional, 2D, mesh comprising a plurality of rows and columns, each interconnect path operatively coupled at opposing ends to an IO input and an IO output for a pair of IO interfaces disposed on opposite sides of the router chip, wherein a given row or column of the 2D mesh includes a pair of interconnect paths configured to transfer data in opposite directions; a first plurality of router nodes, each disposed at a respective row and column intersection, wherein each router node is configured to route data along a path either in the same direction via which the data arrived at the node or turn the data to be routed along a path in a direction perpendicular to the direction via which the data arrived at the node characterized by a plurality of additional interconnect paths operatively coupled between nodes along the periphery of the first 2D mesh. a plurality of input-output, IO, interfaces, disposed proximate to a periphery of the router chip; each IO interface comprising an IO input and an IO output; a first plurality of interconnect paths, configured in a first two-dimensional, 2D, mesh comprising a plurality of rows and columns, each interconnect path operatively coupled at opposing ends to an IO input and an IO output for a pair of IO interfaces disposed on opposite sides of the router chip, wherein a given row or column of the 2D mesh includes a pair of interconnect paths configured to transfer data in opposite directions; a first plurality of router nodes, each disposed at a respective row and column intersection, wherein each router node is configured to route data along a path either in the same direction via which the data arrived at the node or turn the data to be routed along a path in a direction perpendicular to the direction via which the data arrived at the node characterized by a plurality of additional interconnect paths operatively coupled between nodes along the periphery of the first 2D mesh.
A cleaning apparatus configured to clean a variable data lithographic printing apparatus, the cleaning apparatus comprising: a first cleaning member having a surface layer with a durometer at most 45 shore A, a surface roughness Ra less than 0.51 micro meters (20 micro inches) and a surface energy of 0.029-0.035 N/m (29-35 dynes/cm) and higher than a surface energy of an imaging member, the first cleaning member configured to rotate against a conformable surface of the imaging member to transfer residual ink from the imaging member to the surface layer of the first cleaning member upon rotation of the imaging member, the first cleaning member having a temperature controlled to a temperature at least 5 degrees Celsius less than a temperature of the imaging member; and a second cleaning member having a hard surface with a surface roughness Ra less than 0.25 micro meters (10 micro inches) and less than the surface roughness of the first cleaning member and a surface energy at least 0.008 N/m (8 dynes/cm) higher than the surface energy of the first cleaning member, the second cleaning member configured to rotate against the first cleaning member surface layer to transfer the residual ink from the first cleaning member to the second cleaning member upon rotation of the first cleaning member, the second cleaning member having a temperature controlled to a temperature at least 5 degrees Celsius less than the temperature of the imaging member. a first cleaning member having a surface layer with a durometer at most 45 shore A, a surface roughness Ra less than 0.51 micro meters (20 micro inches) and a surface energy of 0.029-0.035 N/m (29-35 dynes/cm) and higher than a surface energy of an imaging member, the first cleaning member configured to rotate against a conformable surface of the imaging member to transfer residual ink from the imaging member to the surface layer of the first cleaning member upon rotation of the imaging member, the first cleaning member having a temperature controlled to a temperature at least 5 degrees Celsius less than a temperature of the imaging member; and a second cleaning member having a hard surface with a surface roughness Ra less than 0.25 micro meters (10 micro inches) and less than the surface roughness of the first cleaning member and a surface energy at least 0.008 N/m (8 dynes/cm) higher than the surface energy of the first cleaning member, the second cleaning member configured to rotate against the first cleaning member surface layer to transfer the residual ink from the first cleaning member to the second cleaning member upon rotation of the first cleaning member, the second cleaning member having a temperature controlled to a temperature at least 5 degrees Celsius less than the temperature of the imaging member.
An imaging lens for use in a light module for a vehicle headlamp, comprising a light entry surface and a light exit surface, the light entry and exit surfaces (2, 3) being configured and arranged to project light entering the light entry surface and exiting the light exit surface to a far field in order to generate a predefined light intensity distribution in the far field, wherein one or more of the light entry surface and the light exit surface comprise an aspheric surface which curvature is defined by an overlay of a conic section plus at least one correction polynomial (C(r), C(x, y)) of at least second order or higher, characterized in that, the correction polynomial (C(r), C(x, y)) describes a waveform, wherein the waveform is a continuous waveform having at least one inflection point, and wherein at the inflection point the polynomial correction changes its curvature from convex to concave, or vice versa. a light entry surface and a light exit surface, the light entry and exit surfaces (2, 3) being configured and arranged to project light entering the light entry surface and exiting the light exit surface to a far field in order to generate a predefined light intensity distribution in the far field, wherein one or more of the light entry surface and the light exit surface comprise an aspheric surface which curvature is defined by an overlay of a conic section plus at least one correction polynomial (C(r), C(x, y)) of at least second order or higher, characterized in that, the correction polynomial (C(r), C(x, y)) describes a waveform, wherein the waveform is a continuous waveform having at least one inflection point, and wherein at the inflection point the polynomial correction changes its curvature from convex to concave, or vice versa.
A control unit (210-A, 210-B) for controlling a radio node (202-A, 202-B) comprising a first radio unit (206-A, 206-B) and a second radio unit (208-A, 208-B), the control unit (210-A, 210-B) configured to: generate and output one or more control signals to cause: the first radio unit (206-A, 206-B) to exchange a first portion of backhaul information with another radio node (202-B, 202-A) over a first communication link (218, 220) established using a first frequency bandwidth (F BACKHAUL); the second radio unit (208-A, 208-B) to provide uplink (212-A, 212-B) and downlink (214-A, 214-B) radio access connectivity to one or more end-user nodes (216-A, 216-B) using a second frequency bandwidth (F END-USER), wherein the second frequency bandwidth (F END-USER) being different from the first frequency bandwidth (F BACKHAUL); and the second radio unit (208-A, 208-B) to exchange a second portion of the backhaul information with the other radio node (202-B, 202-A) over a second communication link (222, 224), the second communication link (222, 224) being established using the second frequency bandwidth (F END-USER); characterized in that the control unit (210-A, 210-B) is configured to allocate none of the second frequency bandwidth (F END-USER) for use in establishing the second communication link (222, 224) in response to determining that a quality of the first communication link (218, 220) is greater than or equal to a minimum quality, and allocate a portion of the second frequency bandwidth (F END-USER) for use in establishing the second communication link (222, 224) in response to determining that the quality of the first communication link (218, 220) is less than the minimum quality. the first radio unit (206-A, 206-B) to exchange a first portion of backhaul information with another radio node (202-B, 202-A) over a first communication link (218, 220) established using a first frequency bandwidth (F BACKHAUL); the second radio unit (208-A, 208-B) to provide uplink (212-A, 212-B) and downlink (214-A, 214-B) radio access connectivity to one or more end-user nodes (216-A, 216-B) using a second frequency bandwidth (F END-USER), wherein the second frequency bandwidth (F END-USER) being different from the first frequency bandwidth (F BACKHAUL); and the second radio unit (208-A, 208-B) to exchange a second portion of the backhaul information with the other radio node (202-B, 202-A) over a second communication link (222, 224), the second communication link (222, 224) being established using the second frequency bandwidth (F END-USER); characterized in that the control unit (210-A, 210-B) is configured to allocate none of the second frequency bandwidth (F END-USER) for use in establishing the second communication link (222, 224) in response to determining that a quality of the first communication link (218, 220) is greater than or equal to a minimum quality, and allocate a portion of the second frequency bandwidth (F END-USER) for use in establishing the second communication link (222, 224) in response to determining that the quality of the first communication link (218, 220) is less than the minimum quality.
Arrangement for operating radiation emitting devices, comprising - a plurality of radiation emitting devices (212a, 212b, 212c, 212n), the devices each having a first capacitance (214a, 214b, 214c, 214n), - a drive circuit for supplying electrical energy to the individual devices, characterized in that the arrangement further comprises: - a compensation structure comprising a variable second capacitance (224a, 224b, 224c, 224n) corresponding to each device, respectively, and means for adjusting the respective second capacitance, the compensation structure being connected to the devices in such a way that a total capacitance associated with a device and dependent on the first capacitance is adjustable by means of the second capacitance. - a plurality of radiation emitting devices (212a, 212b, 212c, 212n), the devices each having a first capacitance (214a, 214b, 214c, 214n), - a drive circuit for supplying electrical energy to the individual devices, characterized in that the arrangement further comprises: - a compensation structure comprising a variable second capacitance (224a, 224b, 224c, 224n) corresponding to each device, respectively, and means for adjusting the respective second capacitance, the compensation structure being connected to the devices in such a way that a total capacitance associated with a device and dependent on the first capacitance is adjustable by means of the second capacitance. characterized in that the arrangement further comprises: - a compensation structure comprising a variable second capacitance (224a, 224b, 224c, 224n) corresponding to each device, respectively, and means for adjusting the respective second capacitance, the compensation structure being connected to the devices in such a way that a total capacitance associated with a device and dependent on the first capacitance is adjustable by means of the second capacitance. - a compensation structure comprising a variable second capacitance (224a, 224b, 224c, 224n) corresponding to each device, respectively, and means for adjusting the respective second capacitance, the compensation structure being connected to the devices in such a way that a total capacitance associated with a device and dependent on the first capacitance is adjustable by means of the second capacitance.
A Pediococcus pentosaceus strain for use in a method for treatment of colorectal cancer, wherein the Pediococcus pentosaceus strain has been transformed with a gene construct, comprising a polynucleotide encoding a cystatin or active fragment of the cystatin operably linked to an exogenous promoter and a gene encoding a secretion signal peptide, and expresses and secretes the cystatin in a gastrointestinal tract, and wherein the exogenous promoter is at least one promoter selected from the group consisting of SEQ ID NO: 1 to SEQ ID NO: 5.
Method for regenerating a particle filter arranged in the exhaust tract of an internal combustion engine by means of at least one NO oxidation catalytic converter which is arranged upstream of the particle filter and which serves for the oxidation of NO, in particular to form NO 2, and which is flowed through by an exhaust-gas flow, wherein at least one heating device, in particular a heating catalytic converter, is provided which is arranged upstream of the particle filter and which is flowed through by a further gas flow and by means of which the further gas flow is heated, wherein the heated further gas flow is mixed, upstream of the particle filter, with the exhaust-gas flow which passes from the NO oxidation catalytic converter and which is in particular laden with NO 2, characterized in that a second exhaust-gas flow which forms the further gas flow is branched off, upstream of the NO oxidation catalytic converter and upstream of the heating device, from an exhaust-gas flow which is conducted to the NO oxidation catalytic converter, in such a way that a first exhaust-gas flow flows through the NO oxidation catalytic converter and a second exhaust-gas flow flows through the heating device, and the two exhaust-gas flows (14, 15) are merged again downstream of the NO oxidation catalytic converter and the heating device and are conducted to the particle filter, and in that hydrocarbons, in particular a fuel, are/is dosed at predefined times and in predefined quantities, in particular periodically, into the second exhaust-gas flow and are/is oxidized.
An orthopedic device comprising: a posterior shell having first and second wing portions forming an opening over a dorsal aspect thereof; a dorsal shell positionable between the first and second wing portions of the posterior shell, the dorsal shell including a proximal shell portion hingedly connected to a distal shell portion; characterized in that the proximal shell portion _ defines a raised reinforcing ridge extending in a longitudinal direction between proximal and distal ends of the proximal shell portion and arranged to strengthen the proximal shell portion and provide stabilization to a lower leg of a user, a pump assembly receiving opening defined in the raised reinforcing ridge, and a plurality of clearances holes on opposing sides of the raised reinforcing ridge. a posterior shell having first and second wing portions forming an opening over a dorsal aspect thereof; a dorsal shell positionable between the first and second wing portions of the posterior shell, the dorsal shell including a proximal shell portion hingedly connected to a distal shell portion; characterized in that the proximal shell portion _ defines a raised reinforcing ridge extending in a longitudinal direction between proximal and distal ends of the proximal shell portion and arranged to strengthen the proximal shell portion and provide stabilization to a lower leg of a user, a pump assembly receiving opening defined in the raised reinforcing ridge, and a plurality of clearances holes on opposing sides of the raised reinforcing ridge.
A modified coagulation factor having at an internal region between the N-terminal amino acid and the C-terminal amino acid of the primary translation polypeptide of the coagulation factor an insertion of a half-life enhancing polypeptide (HLEP), wherein the coagulation factor is FVIII, and wherein the insertion of the HLEP is within the B-domain of FVIII, and wherein the HLEP is selected from the group consisting of albumin family proteins albumin, afamin, alpha-fetoprotein and the vitamin D binding protein, and portions of an immunoglobulin constant region of immunoglobulins.