mhurhangee/ep-ind-claims huggingface dataset:
A frequency band adaptive wireless communication system comprising a transmitter and a receiver (300, 400, 500) that is arranged to communicate over a plurality of frequency bands between the transmitter and receiver, the system comprising: means comprised in the receiver for identifying available frequency bands from the plurality of frequency bands for a radio communication link based on signal levels of each frequency band; means comprised in the transmitter for evaluating at least one radio link quality metric associated with each of the identified available frequency bands based on a performance criteria; characterized in that the system further comprises means comprised in the transmitter for selecting a transmission scenario for the radio communication link based on the evaluation of the at least one radio link quality metric associated with each of the identified available frequency bands and an optimization goal of the radio communication link, wherein the selected transmission scenario comprises a combination of at least two of the identified available frequency bands; and means comprised in the transmitter for causing the radio communication link between the transmitter and the receiver to be established using the selected transmission scenario. means comprised in the receiver for identifying available frequency bands from the plurality of frequency bands for a radio communication link based on signal levels of each frequency band; means comprised in the transmitter for evaluating at least one radio link quality metric associated with each of the identified available frequency bands based on a performance criteria; characterized in that the system further comprises means comprised in the transmitter for selecting a transmission scenario for the radio communication link based on the evaluation of the at least one radio link quality metric associated with each of the identified available frequency bands and an optimization goal of the radio communication link, wherein the selected transmission scenario comprises a combination of at least two of the identified available frequency bands; and means comprised in the transmitter for causing the radio communication link between the transmitter and the receiver to be established using the selected transmission scenario.
A method for processing polarization data of polarization-sensitive optical coherence tomography, comprising: an acquisition step of acquiring a plurality of sets of polarization data items obtained from light reflected from a sample (Eb) to be measured; a conversion step of converting the polarization data items into a representation in complex numbers which include retardation and axis orientation; and an averaging step of averaging B-scan images of the polarization data items that are expressed in the representation and generating a set of the averaged data items. an acquisition step of acquiring a plurality of sets of polarization data items obtained from light reflected from a sample (Eb) to be measured; a conversion step of converting the polarization data items into a representation in complex numbers which include retardation and axis orientation; and an averaging step of averaging B-scan images of the polarization data items that are expressed in the representation and generating a set of the averaged data items.
An isolated antibody or functional fragment thereof, comprising an antigen-binding region comprising CDR sequences of a variable heavy chain comprising HCDR1 with the sequence according to amino acids 26 to 35 of SEQ ID NO: 11, HCDR2 with the sequence according to amino acids 47 to 66 of SEQ ID NO: 11, and HCDR3 with the sequence according to amino acids 99 to 105 of SEQ ID NO: 11, and of a variable light chain comprising LCDR1 with the sequence according to amino acids 23 to 36 of SEQ ID NO: 30, LCDR2 with the sequence according to amino acids 48 to 58 of SEQ ID NO: 30, and LCDR3 with the sequence according to amino acids 91 to 100 of SEQ ID NO: 30, wherein the antibody or functional fragment thereof specifically binds to both human DKK1 and human DKK4.
A method by a wireless terminal, the method comprising: selecting a first frequency channel from among at least one frequency channel assigned to a sector for a first link; selecting a second frequency channel from among multiple frequency channels assigned to the sector for a second link, wherein the multiple frequency channels assigned to the sector comprise one frequency channel designated as primary frequency channel for the second link and at least one frequency channel designated in the sector as an auxiliary frequency channel for the second link, wherein the first link and the second link comprise an uplink and a downlink; and establishing a connection via the first frequency channel for the first link and the second frequency channel for the second link. selecting a first frequency channel from among at least one frequency channel assigned to a sector for a first link; selecting a second frequency channel from among multiple frequency channels assigned to the sector for a second link, wherein the multiple frequency channels assigned to the sector comprise one frequency channel designated as primary frequency channel for the second link and at least one frequency channel designated in the sector as an auxiliary frequency channel for the second link, wherein the first link and the second link comprise an uplink and a downlink; and establishing a connection via the first frequency channel for the first link and the second frequency channel for the second link.
A vehicle lighting fixture, having an optical axis in which light is emitted therefrom, comprising: a plurality of light sources arranged in a predetermined arrangement direction orthogonal to the optical axis; and at least one projector lens that is arranged forward of the plurality of light sources along the optical axis and is configured to project light emitted from the plurality of light sources forward, wherein the at least one projector lens includes a rear surface and a front surface; the at least one projector lens has a basic shape with a focal point near the plurality of light sources; characterized in that at least part of the front surface of the at least one projector lens includes at least two surfaces (711B, 712B; 713B, 714B), each of the surfaces (711B, 712B; 713B, 714B) is formed by rotating a corresponding portion of the front surface having the basic shape by a respective angle about an axis passing through an optical center of the front surface of the basic shape and substantially orthogonal to the predetermined arrangement direction and to the optical axis, so that the at least two surfaces are rotated by two respective different angles; and one of the respective different angles is approximately three times the other one of the respective different angles. a plurality of light sources arranged in a predetermined arrangement direction orthogonal to the optical axis; and at least one projector lens that is arranged forward of the plurality of light sources along the optical axis and is configured to project light emitted from the plurality of light sources forward, wherein the at least one projector lens includes a rear surface and a front surface; the at least one projector lens has a basic shape with a focal point near the plurality of light sources; characterized in that at least part of the front surface of the at least one projector lens includes at least two surfaces (711B, 712B; 713B, 714B), each of the surfaces (711B, 712B; 713B, 714B) is formed by rotating a corresponding portion of the front surface having the basic shape by a respective angle about an axis passing through an optical center of the front surface of the basic shape and substantially orthogonal to the predetermined arrangement direction and to the optical axis, so that the at least two surfaces are rotated by two respective different angles; and one of the respective different angles is approximately three times the other one of the respective different angles.
A process for modifying at least one dendron intended to form part of a dendrimer, said dendron having the formula: FO(dendrite-Q a) y wherein: - each "dendrite" which may be the same or different is a dendrite which contains branching groups and optionally linking groups, the branching groups being selected from aryl, heteroaryl and fused (hetero)aryl, the first branching group having, in addition to FO, 2 or more groups attached, and in which the distal group of each arm of the dendrite is an aryl or heteroaryl group, - FO is a functional group attached, either directly or via a linking group which can contain one or more reactable unsaturated units, to said first branching atom or group of the dendrite, - at least one of said dendrite or, if present, the linking group to FO containing one or more vinylene or acetylenyl groups, - y is 1 or more, - Q is a surface group, and - a is 0 or an integer, which comprises reacting at least one said vinylene or acetylene group in a chemoselective manner to form a less unsaturated group, with the proviso that the process does not comprise hydrogenating a dendron of the formula: where OR is 2-ethylhexyloxy. - each "dendrite" which may be the same or different is a dendrite which contains branching groups and optionally linking groups, the branching groups being selected from aryl, heteroaryl and fused (hetero)aryl, the first branching group having, in addition to FO, 2 or more groups attached, and in which the distal group of each arm of the dendrite is an aryl or heteroaryl group, - FO is a functional group attached, either directly or via a linking group which can contain one or more reactable unsaturated units, to said first branching atom or group of the dendrite, - at least one of said dendrite or, if present, the linking group to FO containing one or more vinylene or acetylenyl groups, - y is 1 or more, - Q is a surface group, and - a is 0 or an integer,
A method for video processing, comprising: obtaining a current image frame and a previous image frame in a video to be processed based on a preset sampling frequency value; obtaining a first skin tone weight map of the current image frame and a second skin tone weight map of the previous image frame; superimposing the first skin tone weight map and the second skin tone weight map to obtain a third skin tone weight map; and superimposing a first luminance map of the current image frame and a second luminance map based on the third skin tone weight map to obtain a second image, wherein the first luminance map is a luminance map of the current image frame, and the second luminance map is a map obtained after the first luminance map is smoothed; characterized in that obtaining the first skin tone weight map of the current image frame comprises: obtaining a first skin tone value range of the current image frame and a second skin tone value range of the previous image frame; superimposing the first skin tone value range and the second skin tone value range to obtain a third skin tone value range; and obtaining the first skin tone weight map of the current image frame based on the third skin tone value range. obtaining a current image frame and a previous image frame in a video to be processed based on a preset sampling frequency value; obtaining a first skin tone weight map of the current image frame and a second skin tone weight map of the previous image frame; superimposing the first skin tone weight map and the second skin tone weight map to obtain a third skin tone weight map; and superimposing a first luminance map of the current image frame and a second luminance map based on the third skin tone weight map to obtain a second image, wherein the first luminance map is a luminance map of the current image frame, and the second luminance map is a map obtained after the first luminance map is smoothed; characterized in that obtaining the first skin tone weight map of the current image frame comprises: obtaining a first skin tone value range of the current image frame and a second skin tone value range of the previous image frame; superimposing the first skin tone value range and the second skin tone value range to obtain a third skin tone value range; and obtaining the first skin tone weight map of the current image frame based on the third skin tone value range. obtaining a first skin tone value range of the current image frame and a second skin tone value range of the previous image frame; superimposing the first skin tone value range and the second skin tone value range to obtain a third skin tone value range; and obtaining the first skin tone weight map of the current image frame based on the third skin tone value range.
A reclosure for a package, bag or container, including: first and second interlocking profiles (12, 14) which include respective first and second interlocking elements (22, 36); characterised in that the first interlocking element is a male element including a plurality of cuts extending partially through the male element; and the second interlocking element is a female element, including a plurality of crushed areas formed on the female element. first and second interlocking profiles (12, 14) which include respective first and second interlocking elements (22, 36); characterised in that the first interlocking element is a male element including a plurality of cuts extending partially through the male element; and the second interlocking element is a female element, including a plurality of crushed areas formed on the female element.
A method for detecting an isolation fault condition of a LED module supplied with electrical power by a non-isolated switched LED converter, the non-isolated switched LED converter having a control circuit for issuing a control signal for at least one switch (HS_FET, LS_FET) of the non-isolated switched LED converter and being supplied with at least one feedback signal from the LED module in order to implement a feedback-controlled operation of the LED module, the method comprising the steps of: - obtaining and analysing a signal (300, 400) indicating the operation frequency of the switch (HS_FET, LS_FET) of the non-isolated switched LED converter in order to evaluate the contribution of a harmonic in the frequency range of a mains voltage supplying the non-isolated switched LED converter in said signal (300, 400), and - stopping or reducing the electrical power supplied to the LED module in case the contribution of said harmonic exceeds a given threshold value during at least a preset time period or preset number of cycles. - obtaining and analysing a signal (300, 400) indicating the operation frequency of the switch (HS_FET, LS_FET) of the non-isolated switched LED converter in order to evaluate the contribution of a harmonic in the frequency range of a mains voltage supplying the non-isolated switched LED converter in said signal (300, 400), and - stopping or reducing the electrical power supplied to the LED module in case the contribution of said harmonic exceeds a given threshold value during at least a preset time period or preset number of cycles.
A method for adapting System Information, SI, acquisition in a Wireless Device, WD,, comprising the steps of: a) if a neighbour cell transmits SI where fields other than frame numbers do not change in different transmission periods over a certain period of time, obtaining (320, 320B) by the WD from the neighbour cell a Cell Global Identity, CGI, of the neighbour cell within a first time period, and b) otherwise, obtaining (320, 320A) by the WD from the neighbour cell the CGI of the neighbour cell within a second time period longer than the first time period, wherein, in step a), obtaining by the WD from the neighbour cell the CGI of the neighbour cell within the first period comprises combining by the WD at least some fields, other than the fields related to frame numbers, from multiple SI transmissions to acquire the SI, and, in step b), obtaining by the WD from the neighbour cell the CGI of the neighbour cell within the second period comprises not combining by the WD any of the fields from multiple SI transmissions to acquire the SI. a) if a neighbour cell transmits SI where fields other than frame numbers do not change in different transmission periods over a certain period of time, obtaining (320, 320B) by the WD from the neighbour cell a Cell Global Identity, CGI, of the neighbour cell within a first time period, and b) otherwise, obtaining (320, 320A) by the WD from the neighbour cell the CGI of the neighbour cell within a second time period longer than the first time period,
A method for managing an automated system comprising a display and adapted to be controlled by a human operator and by at least one automatic controller comprising a predetermined number of states and a set of conditions allowing to switch from one state to another, the automatic controller being in only one state at a time, the method comprising: - a step of triggering a condition associated with a parameter of the system, - a step of displaying said parameter of the system on the display in a first display zone of the display, called the parameter zone, - a step of automatic change of state of the automatic controller between a first state of the automatic controller and a second state of the automatic controller subsequent to the triggering of the condition, - a step of displaying said second state on the display in a second display zone of the display, called second state zone, - a step of detecting, by an operator's gaze tracking device and after the display of the parameter and the display of the second state, the zones of the display that are looked at by the human operator within a predetermined time interval, called the zones looked at, characterized in that it further comprises: - a step of verifying that the zones looked at comprise at least the second state zone and the parameter zone, and, if the zones looked at comprise at least the second state zone and the parameter zone, - a step of controlling, by the operator's gaze tracking device, that the operator makes an eye movement between the second state zone and the parameter zone. - a step of triggering a condition associated with a parameter of the system, - a step of displaying said parameter of the system on the display in a first display zone of the display, called the parameter zone, - a step of automatic change of state of the automatic controller between a first state of the automatic controller and a second state of the automatic controller subsequent to the triggering of the condition, - a step of displaying said second state on the display in a second display zone of the display, called second state zone, - a step of detecting, by an operator's gaze tracking device and after the display of the parameter and the display of the second state, the zones of the display that are looked at by the human operator within a predetermined time interval, called the zones looked at, - a step of verifying that the zones looked at comprise at least the second state zone and the parameter zone, and, if the zones looked at comprise at least the second state zone and the parameter zone, - a step of controlling, by the operator's gaze tracking device, that the operator makes an eye movement between the second state zone and the parameter zone.
Method for fabrication of a partly finished product composed of an aluminium alloy plate or section, designed particularly to form a structural component of an automobile vehicle capable of irreversibly absorbing energy at the time of a collision with an obstacle or a shock, including steps consisting of: - a fabrication step of the partly finished product, consisting of rolling and quenching or extrusion of an aluminium alloy in order to obtain a partly finished product, - a tempering heat treatment step of the partly finished product, characterised in that, before the tempering step, a sample (e) is drawn off from a batch comprising a set of partly finished products with common fabrication parameters, so that a test of at least one of its functional characteristics can be made on it, the conditions (T, Δt) of the tempering step being determined as a function of the measured value (Cm, Fm, Rm m, Rp m, Am) during the test and a target value (Cc, Fc, Rm c, Rp c, Ac) of at least one functional characteristic, the tempering heat treatment step being applied under determined (T, Δt) conditions on the entire batch from which the sample (e) is taken. - a fabrication step of the partly finished product, consisting of rolling and quenching or extrusion of an aluminium alloy in order to obtain a partly finished product, - a tempering heat treatment step of the partly finished product,
A computing system, comprising: a processor; a storage device holding instructions executable by the processor to receive a thermal image acquired via a thermal imaging system, each pixel of the thermal image comprising an intensity level; generate a histogram via binning pixels by intensity level; based at least on the histogram, determine a subset of pixels to colorize; colorize the subset of pixels to produce a selectively colorized image; and output the selectively colorized image. a processor; a storage device holding instructions executable by the processor to receive a thermal image acquired via a thermal imaging system, each pixel of the thermal image comprising an intensity level; generate a histogram via binning pixels by intensity level; based at least on the histogram, determine a subset of pixels to colorize; colorize the subset of pixels to produce a selectively colorized image; and output the selectively colorized image. receive a thermal image acquired via a thermal imaging system, each pixel of the thermal image comprising an intensity level; generate a histogram via binning pixels by intensity level; based at least on the histogram, determine a subset of pixels to colorize; colorize the subset of pixels to produce a selectively colorized image; and output the selectively colorized image.
A lithium-air battery comprising: a positive electrode comprising an electron-conducting material; a separator; a lithium salt-dissolved organic electrolyte; and a negative electrode, which can occlude or release lithium, characterized in that the organic electrolyte is tetraethylene glycol dimethyl ether, TEGDME. a positive electrode comprising an electron-conducting material; a separator; a lithium salt-dissolved organic electrolyte; and a negative electrode, which can occlude or release lithium, characterized in that the organic electrolyte is tetraethylene glycol dimethyl ether, TEGDME.
A method in a transmitter for transmitting at least a first data burst and a second data burst to a receiver in a system, wherein the system is an Enhanced General Packet Radio Service/ Enhanced General Packet Radio Service 2, EGPRS/EGRPS2, system, wherein the system applies closed loop codebook-based precoding Multiple Input Multiple Output, MIMO, and wherein the transmitter comprises at least a first transmission, Tx, antenna and a second Tx antenna, the method comprising: transmitting (202, 1501), to the receiver, the first data burst through the first Tx antenna and the second data burst through the second Tx antenna, wherein the first data burst comprises a first training sequence and the second data burst comprises a second training sequence when the first data burst and the second data burst are non-precoded, and wherein the first data burst comprises a third training sequence and the second data burst comprises a fourth training sequence when the first data burst and the second data burst are precoded, all training sequences being different. transmitting (202, 1501), to the receiver, the first data burst through the first Tx antenna and the second data burst through the second Tx antenna, wherein the first data burst comprises a first training sequence and the second data burst comprises a second training sequence when the first data burst and the second data burst are non-precoded, and