mhurhangee/ep-ind-claims huggingface dataset:
A method (400, 2000) for generating image data using a data reader (100, 300, 1500) having an imager (110, 320) with multiple fields of view, the method comprising: directing a first field of view (112, 305) of the imager along a first path; directing a second field of view (114, 310) of the imager along a second path; illuminating (405, 2015), via a first illumination source (120, 381, 382), the first field of view of the data reader with a first series of illumination pulses at a first pulse repetition rate (520-534, 620-629, 820-829, 920-929), illuminating, via a second illumination source (122, 371, 372), the second field of view of the data reader with a second series of illumination pulses at a second pulse repetition rate (540-554, 640-649, 840-849, 940-94); characterized by capturing (410, 2020) at the imager a sequence of images at an image capture rate (510-519, 610-619, 710-719, 810-819, 910-919), the sequence of images alternating between a first set of images of the first field of view and a second set of images of the second field of view; wherein the first pulse repetition rate and the image capture rate are set such that the imager captures each image of the first set of images during the first illumination source illuminating the first field of view with an illumination pulse; and, the second pulse repetition rate and the image capture rate are set such that the imager captures each image of the second set of images during the second illumination source illuminating the second field of view with an illumination pulse. directing a first field of view (112, 305) of the imager along a first path; directing a second field of view (114, 310) of the imager along a second path; illuminating (405, 2015), via a first illumination source (120, 381, 382), the first field of view of the data reader with a first series of illumination pulses at a first pulse repetition rate (520-534, 620-629, 820-829, 920-929), illuminating, via a second illumination source (122, 371, 372), the second field of view of the data reader with a second series of illumination pulses at a second pulse repetition rate (540-554, 640-649, 840-849, 940-94); characterized by capturing (410, 2020) at the imager a sequence of images at an image capture rate (510-519, 610-619, 710-719, 810-819, 910-919), the sequence of images alternating between a first set of images of the first field of view and a second set of images of the second field of view; wherein the first pulse repetition rate and the image capture rate are set such that the imager captures each image of the first set of images during the first illumination source illuminating the first field of view with an illumination pulse; and, the second pulse repetition rate and the image capture rate are set such that the imager captures each image of the second set of images during the second illumination source illuminating the second field of view with an illumination pulse.
A method of blind decoding of a control channel for a mobile device of a wireless communication system comprising a network and the mobile device, the method comprising: monitoring, by the mobile device, all of enhanced physical downlink control channel, EPDCCH, candidates transmitted from the network and configured for said mobile device at an enhanced control channel elements, ECCE, domain, wherein the EPDCCH candidates are in a position derived from the following equation: L Y k + ⌊ m * N ECCE, k / L M L ⌋ ⁢ mod ⌊ N ECCE, k / L ⌋ + i, where the N ECCE, k is the total number of ECCE in the ECCE domain of a subframe k; m denotes the m th EPDCCH candidate and m has a value range from 0 to M -1; M is the total number of EPDCCH candidates of a corresponding aggregation level L for the ECCE domain; i denotes the index of ECCE of the m th EPDCCH candidate and i has a value range from 0 to L-1; and Y k is an ECCE-domain-specific pseudo-random number. monitoring, by the mobile device, all of enhanced physical downlink control channel, EPDCCH, candidates transmitted from the network and configured for said mobile device at an enhanced control channel elements, ECCE, domain, wherein the EPDCCH candidates are in a position derived from the following equation: L Y k + ⌊ m * N ECCE, k / L M L ⌋ ⁢ mod ⌊ N ECCE, k / L ⌋ + i, where the N ECCE, k is the total number of ECCE in the ECCE domain of a subframe k; m denotes the m th EPDCCH candidate and m has a value range from 0 to M -1; M is the total number of EPDCCH candidates of a corresponding aggregation level L for the ECCE domain; i denotes the index of ECCE of the m th EPDCCH candidate and i has a value range from 0 to L-1; and Y k is an ECCE-domain-specific pseudo-random number.
A rotary latch locking device comprising a rotary latch for receiving a catch bolt in a locked manner in the closed position of the rotary latch and for releasing the catch bolt in the open position; a locking lever which is in engagement with the rotary latch and which is pivotable between a locked position and a released position, in order in the locked position of said locking lever to lock the rotary latch in the closed position thereof and in order in the released position of said locking lever to release the rotary latch into the open position; an actuating element in order to move the locking lever into the locked position; a sensor, for example a switch, in order to detect the locked position of the locking lever, and a blocking lever which is movable between a blocked position and an unblocked position in order in the blocked position to block the locking lever from reaching the locked position, wherein the blocking lever and the rotary latch are arranged on a common axis and the blocking lever is moved by the catch bolt from the blocked position into the unblocked position.
An electronic device comprising: a first housing; a second housing slidably coupled to the first housing; a rollable display that is disposed to be supported by the first housing and the second housing and of which a display area is reduced or expanded based on sliding-in state or sliding-out state of the second housing; a support member disposed on a rear surface of the rollable display to support at least a portion of the rollable display; a first printed circuit board and a rack gear disposed in the first housing; a second printed circuit board disposed in the second housing; and a flexible printed circuit board that is configured to connect the first printed circuit board and the second printed circuit board and is configured to be folded or unfolded based on the sliding-in state or the sliding-out state of the second housing; wherein the second housing further comprising: a driving motor configured to provide a driving force for driving the second housing and disposed at an edge of the second housing corresponding to a lower part of the electronic device in the sliding-in state; a battery configured to supply power to the driving motor; and a pinion gear configured to transmit power based on the driving force of the driving motor and gear-coupled with the rack gear. a first housing; a second housing slidably coupled to the first housing; a rollable display that is disposed to be supported by the first housing and the second housing and of which a display area is reduced or expanded based on sliding-in state or sliding-out state of the second housing; a support member disposed on a rear surface of the rollable display to support at least a portion of the rollable display; a first printed circuit board and a rack gear disposed in the first housing; a second printed circuit board disposed in the second housing; and a flexible printed circuit board that is configured to connect the first printed circuit board and the second printed circuit board and is configured to be folded or unfolded based on the sliding-in state or the sliding-out state of the second housing; wherein the second housing further comprising: a driving motor configured to provide a driving force for driving the second housing and disposed at an edge of the second housing corresponding to a lower part of the electronic device in the sliding-in state; a battery configured to supply power to the driving motor; and a pinion gear configured to transmit power based on the driving force of the driving motor and gear-coupled with the rack gear. a driving motor configured to provide a driving force for driving the second housing and disposed at an edge of the second housing corresponding to a lower part of the electronic device in the sliding-in state; a battery configured to supply power to the driving motor; and a pinion gear configured to transmit power based on the driving force of the driving motor and gear-coupled with the rack gear.
A method for downlink bandwidth part, BWP, deactivation, applied to a terminal device, the method comprising: performing, based on control of a network device, deactivation of at least one downlink BWP configured on a carrier of the terminal device; wherein deactivation of the at least one downlink BWP is controlled by at least one inactivity timer configured by the network device, comprising: acquiring the at least one inactivity timer configured by the network device for at least part of other downlink BWPs, except an initial BWP, of the at least one downlink BWP; comprising, starting the inactivity timer corresponding to a downlink BWP when data transmission or reception occurred on the downlink BWP; and controlling, through the inactivity timer, a duration during which the downlink BWP is kept in an active state. performing, based on control of a network device, deactivation of at least one downlink BWP configured on a carrier of the terminal device; wherein deactivation of the at least one downlink BWP is controlled by at least one inactivity timer configured by the network device, comprising: acquiring the at least one inactivity timer configured by the network device for at least part of other downlink BWPs, except an initial BWP, of the at least one downlink BWP; comprising, starting the inactivity timer corresponding to a downlink BWP when data transmission or reception occurred on the downlink BWP; and controlling, through the inactivity timer, a duration during which the downlink BWP is kept in an active state. acquiring the at least one inactivity timer configured by the network device for at least part of other downlink BWPs, except an initial BWP, of the at least one downlink BWP; comprising, starting the inactivity timer corresponding to a downlink BWP when data transmission or reception occurred on the downlink BWP; and controlling, through the inactivity timer, a duration during which the downlink BWP is kept in an active state.
An electronic package (200;400), comprising: a package substrate (201;301;401;501), wherein the package substrate (201;301;401;501) is a thermally conductive material; a laser chip (205;305;405;505) attached to the package substrate (201;301;401;501), wherein the laser chip (205;305;405;505) has a first surface and a second surface opposite from the first surface; an interposer (230;330;430;530) over the laser chip, wherein the interposer (230;330;430;530) overhangs an edge of the laser chip (205;305;405;505) and is a thermally conductive material; an interconnect (215;315;415;515) between the interposer (230;330;430;530) and the package substrate (201;01;401;501), wherein the interconnect (215;315;415;515) is electrically conductive and the surface of the laser chip which faces the interposer is electrically coupled to the interconnect by an electrically conductive trace (231;331;431;531) on the interposer; a first cooling device (220A; 320A; 420A; 520A) on a surface of the package substrate (201;301;401;501) facing away from the laser chip (205;305;405;505); and a second cooling device (220B; 320B; 420B; 520B) on a surface of the interposer (230; 330; 430; 530) facing away from the laser chip (205; 305; 405; 505). a package substrate (201;301;401;501), wherein the package substrate (201;301;401;501) is a thermally conductive material; a laser chip (205;305;405;505) attached to the package substrate (201;301;401;501), wherein the laser chip (205;305;405;505) has a first surface and a second surface opposite from the first surface; an interposer (230;330;430;530) over the laser chip, wherein the interposer (230;330;430;530) overhangs an edge of the laser chip (205;305;405;505) and is a thermally conductive material; an interconnect (215;315;415;515) between the interposer (230;330;430;530) and the package substrate (201;01;401;501), wherein the interconnect (215;315;415;515) is electrically conductive and the surface of the laser chip which faces the interposer is electrically coupled to the interconnect by an electrically conductive trace (231;331;431;531) on the interposer; a first cooling device (220A; 320A; 420A; 520A) on a surface of the package substrate (201;301;401;501) facing away from the laser chip (205;305;405;505); and a second cooling device (220B; 320B; 420B; 520B) on a surface of the interposer (230; 330; 430; 530) facing away from the laser chip (205; 305; 405; 505).
Evisceration apparatus for eviscerating a poultry carcass suspended by the legs, wherein the apparatus comprises an evisceration tool which is movable up and down, and into and out of a body cavity of the poultry, and wherein the evisceration tool comprises two bracket halves (2', 2") that connect to each other with a hinge at a lower extremity of the tool to enable a rotational movement of the two bracket halves (2', 2") around the hinge, wherein said two bracket halves (2', 2") are embodied with cooperating clamping faces (8, 8') adjacent to and above said hinge for clamping a part of the viscera of the poultry when the two bracket halves (2', 2'') are moved by a rotational movement around the hinge towards each other from an open position into a closed position, and wherein said two bracket halves (2', 2") are provided with curvatures that arrange that the two bracket halves (2', 2") delimit a window in one of the open and closed positions of the two bracket halves (2', 2") characterized in that the evisceration tool further comprises a support bracket positioned next to the two bracket halves (2', 2"), which support bracket is movable up and down, and into and out of the body cavity of the poultry simultaneously and synchronously with the two bracket halves (2', 2") and that the support bracket is movable towards and away from the two bracket halves (2', 2"), wherein the support bracket can assume a position between the two bracket halves (2', 2") and in that the curvatures are arranged such that the window is present immediately adjacent to the clamping faces (8, 8') when the two bracket halves (2', 2") are in the closed position, whereas said window immediately adjacent to the clamping faces (8, 8') is substantially closed or absent when the two brackets (2', 2") are in the open position wherein the clamping faces (8, 8') are distant from each other.
A scuttle for the monitoring and inspection of an external tensile armour layer of a flexible riser, the scuttle comprising: - an inspection chamber comprising at least two structural cells wherein each structural cell comprises two spars, aligned in use with an axis of Z the riser, connected to two structural rings so as to form said structural cells; - an inspection window being attached over at least one of said structural cells; - means of affixing and sealing the scuttle to the riser and/or to a riser accessory, the means of affixing and sealing being configured to interact with extremities of the inspection chamber and thereby establish a watertight connection between the inspection chamber and the riser and/or the riser accessory; characterised in that: the riser is a multilayer riser wherein the external tensile armour layer is overlaid by an external layer, and the means of affixing and sealing comprises an expansion sleeve of tubular format located at an extremity of the inspection chamber, the expansion sleeve being configured to be provided between the external layer of the riser and the external tensile armour layer for supporting and separating the external layer of the riser from the external tensile armour layer, thereby allowing the inspection chamber to be formed directly upon the external tensile armour layer. - an inspection chamber comprising at least two structural cells wherein each structural cell comprises two spars, aligned in use with an axis of Z the riser, connected to two structural rings so as to form said structural cells; - an inspection window being attached over at least one of said structural cells; - means of affixing and sealing the scuttle to the riser and/or to a riser accessory, the means of affixing and sealing being configured to interact with extremities of the inspection chamber and thereby establish a watertight connection between the inspection chamber and the riser and/or the riser accessory; characterised in that: the riser is a multilayer riser wherein the external tensile armour layer is overlaid by an external layer, and the means of affixing and sealing comprises an expansion sleeve of tubular format located at an extremity of the inspection chamber, the expansion sleeve being configured to be provided between the external layer of the riser and the external tensile armour layer for supporting and separating the external layer of the riser from the external tensile armour layer, thereby allowing the inspection chamber to be formed directly upon the external tensile armour layer.
A bale wrapping apparatus for a bale press, in particular a round bale press, including a wrapping table for receiving a bale and at least one wrapping arm carrying a wrapping material in web form, wherein the wrapping table and/or the at least one wrapping arm are drivable in rotation about a plane of the round bale, characterised in that the bale wrapping apparatus includes an open-loop and closed-loop control unit adapted to manipulate the drive speed, that determines the wrapping speed, of the wrapping arm and/or the wrapping table in dependence on at least a residual amount of the wrapping material wound on at least one roll, wherein the residual amount of the wrapping material is a process parameter influencing the duration of the wrapping process, wherein there is provided at least one sensor for determining a residual amount of the wrapping material wound on at least one roll at the at least one wrapping arm, wherein the measures initiated by the open-loop and closed-loop control unit lead to finishing of the bale at least approximately within the regular wrapping duration.
A method for a low duty cycle wireless device to exchange messages with a network server, the method comprising waking the low duty cycle wireless device based on an awake time for the low duty cycle wireless device, the awake time being indicated by the network server using a scheduling message, wherein the awake time is scheduled based on information from the low duty cycle wireless device, said information includes battery power of the wireless device and whether low duty cycle wireless device is stationary for a predetermined amount of time, wherein, if said battery power falls below one or more predetermined thresholds, a hibernation schedule would be extended and if said battery power is above a predetermined threshold, said hibernation schedule would be shortened; and receiving one or more messages from the network server during the awake time; and the method further comprising transmitting an unscheduled transmission from the low duty cycle wireless device to the network server outside of the awake time.
An anti-PD-1 antibody or an antigen-binding portion thereof, wherein said antibody comprises a heavy chain variable domain and a light chain variable domain that comprise the amino acid sequences of a) SEQ ID NOs: 9 and 10, respectively; b) SEQ ID NOs: 78 and 10, respectively; c) SEQ ID NOs: 9 and 88, respectively; or d) SEQ ID NOs: 78 and 88, respectively; wherein in SEQ ID NO: 9, X in position 5 is V or Q, X in position 59 is T, X in position 76 is R or K, and X in position 83 is M or L. a) SEQ ID NOs: 9 and 10, respectively; b) SEQ ID NOs: 78 and 10, respectively; c) SEQ ID NOs: 9 and 88, respectively; or d) SEQ ID NOs: 78 and 88, respectively;
Device for moulding objects in a cavity which is at least partially formed by an insert in a mould plate, wherein a coupling part is arranged in the mould plate, which coupling part is connectable with a further coupling part in the insert, wherein the coupling part/coupling parts (3, 4) in the mould plate and/or in the insert is/are mounted in a floating manner in the radial direction, characterized in that the coupling part comprises an outer sleeve which is surrounded by an outer ring, wherein a distance (a, b) between outer sleeve and outer ring of the coupling part can be changed.
A method for double random disruption of a DNA sample, said method comprising anchoring a set of double random primers to a DNA sample, the set of primers consisting of a plurality of upstream random primers and a plurality of downstream random primers, the sequence composition of the upstream random primers being 5'-X-Y-3', and the sequence composition of the downstream random primers being 5'-P-Y'-X'-close-3', wherein Y and Y' are a random sequence, X is the whole or part of the sequence of the 5'-end adaptor for a sequencing platform, X' is the whole or part of the sequence of the 3'-end adaptor for a sequencing platform, P is phosphorylation modification, and close is a blocking modification used to prevent the formation of 3-5 phosphodiester linkage, and the method specifically comprises hybridizing the upstream random primers and the downstream random primers to a denatured DNA sample; filling the sequence between the upstream random primer and the downstream random primer which are most adjacent to each other by extending the 3'-end of the upstream random primer under the action of a DNA polymerase; and ligating the 3'-end of the extended sequence of the upstream random primer to the 5'-end of the downstream random primer under the action of a DNA ligase, that is, the upstream random primer together with its extended sequence being linked with the downstream random primer into a single sequence, thus achieving double random disruption of the DNA sample through the random hybridization of the upstream random primers and the downstream random primers, thus obtaining DNA fragments.
An electrochemiluminescence method of detecting an analyte in a liquid sample using a measuring cell, the measuring cell comprising a working electrode for detecting the analyte using an electrochemiluminescence measurement cycle, the method comprising a. carrying out the measurement cycle in a calibration process using a liquid sample void of the analyte and performing a first electrochemical impedance spectroscopy, EIS, at a given point of the measurement cycle, the first EIS being performed using the working electrode, b. carrying out the measurement cycle in an analysis process using the liquid sample containing the analyte and performing a second EIS at the given point of the measurement cycle, the second EIS being performed using the working electrode, c. comparing the result of the first EIS and the second EIS, d. providing an indication of a measurement state indicating if the comparison results that a deviation between the first EIS and the second EIS is exceeding a predefined threshold. a. carrying out the measurement cycle in a calibration process using a liquid sample void of the analyte and performing a first electrochemical impedance spectroscopy, EIS, at a given point of the measurement cycle, the first EIS being performed using the working electrode, b. carrying out the measurement cycle in an analysis process using the liquid sample containing the analyte and performing a second EIS at the given point of the measurement cycle, the second EIS being performed using the working electrode, c. comparing the result of the first EIS and the second EIS, d. providing an indication of a measurement state indicating if the comparison results that a deviation between the first EIS and the second EIS is exceeding a predefined threshold.