mhurhangee/ep-ind-claims huggingface dataset:
A rotorcraft comprising: a rotor; a pilot input device; a position sensor coupled to the input device; a flight condition sensor; and a FCC including: a primary microprocessor configured to receive input data from the position sensor and the flight condition sensor and determine therefrom a first desired control law state; and a secondary microprocessor configured to receive input data from the position sensor and the flight condition sensor and determine therefrom a second desired control law state; wherein the FCC is configured to compare the first desired control law state from the primary microprocessor and the second desired control law state from the secondary microprocessor and to (a) enter the first desired control law state when the first desired control law state and the second desired control law state match, and (b) maintain a last known control law state for which the primary and the secondary microprocessors agreed upon, when the first desired control law state and the second desired control law state do not match. a rotor; a pilot input device; a position sensor coupled to the input device; a flight condition sensor; and a FCC including: a primary microprocessor configured to receive input data from the position sensor and the flight condition sensor and determine therefrom a first desired control law state; and a secondary microprocessor configured to receive input data from the position sensor and the flight condition sensor and determine therefrom a second desired control law state; a primary microprocessor configured to receive input data from the position sensor and the flight condition sensor and determine therefrom a first desired control law state; and a secondary microprocessor configured to receive input data from the position sensor and the flight condition sensor and determine therefrom a second desired control law state; wherein the FCC is configured to compare the first desired control law state from the primary microprocessor and the second desired control law state from the secondary microprocessor and to (a) enter the first desired control law state when the first desired control law state and the second desired control law state match, and (b) maintain a last known control law state for which the primary and the secondary microprocessors agreed upon, when the first desired control law state and the second desired control law state do not match.
A device for adding solid additives into a hydraulic circuit comprising a container for said additives, connected to a hollow column, which is vertically and perpendicularly arranged to the supply circuit of the main waterwork and is connected thereto, with the lower part thereof, by means of suitable engaging means, so that said solid additives descends by gravity into said column and directly towards or into said supply circuit of the main waterwork where they mix with a liquid flowing in said supply circuit of the main waterwork characterised in that it comprises equipment capable of introducing pressurised air into the upper part of said column, so as to lower the level of water contained in said column so as to prevent contact between the water and said container wherein the device further comprises a level probe sending a signal of the level reached by said water into said column to a control system.
A child swing apparatus comprising: a support frame; a seat support for receiving the placement of a child; a swing arm (104, 106) assembled with the support frame about a pivot axis (P1, P2), the swing arm (104, 106) holding the seat support; a driven part arranged radially spaced apart from the pivot axis (P1, P2) and movable along with the seat support and the swing arm (104, 106) relative to the support frame; and a drive mechanism assembled with the support frame and having a driving end operable to apply a torque on the driven part so as to cause swing motion of the seat support, characterized in that the drive mechanism includes a rotary axle, and a wheel driven in rotation by the rotary axle and in constant contact with the driven part. a support frame; a seat support for receiving the placement of a child; a swing arm (104, 106) assembled with the support frame about a pivot axis (P1, P2), the swing arm (104, 106) holding the seat support; a driven part arranged radially spaced apart from the pivot axis (P1, P2) and movable along with the seat support and the swing arm (104, 106) relative to the support frame; and a drive mechanism assembled with the support frame and having a driving end operable to apply a torque on the driven part so as to cause swing motion of the seat support, characterized in that the drive mechanism includes a rotary axle, and a wheel driven in rotation by the rotary axle and in constant contact with the driven part.
A compound having a structural unit derived from a dimerdiol and having, as end groups, a group represented by formula: wherein R 1 represents H or CH 3 and R 2 represents a hydrocarbon group having 2 to 12 carbon atoms, and a group represented by formula: wherein R 3 s each independently represent CH 3 or CH 2 CH 3 and R 4 represents a hydrocarbon group having 3 to 9 carbon atoms, at ends of the compound.
A method for gathering data by an access point (14, 34) in a Wi-Fi system for optimization, the method comprising: in the access point, periodically or based on command from a cloud-based system i) obtaining on-channel scanning data that is data obtained from scanning a home channel while operating on the home channel, the home channel being a channel that an associated radio is presently operating on based on a current configuration and ii) switching off the home channel and obtaining off-channel scanning data that is data obtained from scanning one or more off-channels; and providing measurement data based on one or more of the on-channel scanning data and the off-channel scanning data to the cloud-based system for use in the optimization of the Wi-Fi system, wherein the measurement data comprises raw data and processed data determined by processing the on-channel scanning data and the off-channel scanning data; the processed data comprises a division of time that the home channel is divided which is determined based on a combination of: 1) direct measurements made by the Wi-Fi system, and 2) computations based on the direct measurements made by the Wi-Fi system, the division of time being fractions of time on the home channel that the access point (14, 34) spends in a plurality of categories; characterized in that the plurality of categories include transmitting, receiving, busy, backoff, and idle; and the method further comprises notifying other access points in the Wi-Fi system of the switching off and causing Wi-Fi client devices associated to the access point to move to other access points prior to the switching off. in the access point, periodically or based on command from a cloud-based system i) obtaining on-channel scanning data that is data obtained from scanning a home channel while operating on the home channel, the home channel being a channel that an associated radio is presently operating on based on a current configuration and ii) switching off the home channel and obtaining off-channel scanning data that is data obtained from scanning one or more off-channels; and providing measurement data based on one or more of the on-channel scanning data and the off-channel scanning data to the cloud-based system for use in the optimization of the Wi-Fi system, wherein the measurement data comprises raw data and processed data determined by processing the on-channel scanning data and the off-channel scanning data; the processed data comprises a division of time that the home channel is divided which is determined based on a combination of: 1) direct measurements made by the Wi-Fi system, and 2) computations based on the direct measurements made by the Wi-Fi system, the division of time being fractions of time on the home channel that the access point (14, 34) spends in a plurality of categories; characterized in that the plurality of categories include transmitting, receiving, busy, backoff, and idle; and the method further comprises notifying other access points in the Wi-Fi system of the switching off and causing Wi-Fi client devices associated to the access point to move to other access points prior to the switching off.
Method for verifying an identity of an email-address utilized by a client device, the method being performed by a server and comprising: - receiving a request for verifying the identity of the email-address; - generating a first asymmetric key pair, KP1-S, comprising a private key, PrivK1-S, and a public key, PubK1-S; - calculating a first verification token, VN-1, based on the private key, PrivK1-S, of KP1-S and a known public key, PubK-C, of an asymmetric key pair, KP-C, of the client device; - transmitting a verification email message to the email-address to be verified comprising the public key, PubK1-S, of KP1-S; - receiving a response to the verification email message including a second verification token, VN-2, calculated by the client device based on the private key, PrivK-C, of KP-C and the public key, PubK1-S, transmitted in the verification email message; - verifying the identity of the email-address by verifying that VN-2 is identical to VN-1. - receiving a request for verifying the identity of the email-address; - generating a first asymmetric key pair, KP1-S, comprising a private key, PrivK1-S, and a public key, PubK1-S; - calculating a first verification token, VN-1, based on the private key, PrivK1-S, of KP1-S and a known public key, PubK-C, of an asymmetric key pair, KP-C, of the client device; - transmitting a verification email message to the email-address to be verified comprising the public key, PubK1-S, of KP1-S; - receiving a response to the verification email message including a second verification token, VN-2, calculated by the client device based on the private key, PrivK-C, of KP-C and the public key, PubK1-S, transmitted in the verification email message; - verifying the identity of the email-address by verifying that VN-2 is identical to VN-1.
A method of determining the location of a global navigation satellite system (GNSS) receiver including a receiver memory, which method includes the steps of: computing ionosphere-free pseudo ranges using code and carrier phases of GNSS signals; correcting said ionosphere-free pseudo ranges using satellite-based augmentation system (SBAS) clock and orbit corrections; and providing a microprocessor controller connected to said GNSS receiver; characterized by: computing a table of biases to further correct said pseudo ranges, each bias (B TOTAL) including at least one of a receiver group delay correction component and an inter-signal code bias correction component; uploading said table of biases (B TOTAL) into said receiver memory; computing locations of said receiver using said further corrected pseudo ranges; wherein a separate one of said bias valves (B TOTAL) is provided for each of multiple GNSS satellites; wherein B TOTAL = B ISC_TGD + B USER-SBAS, where B USER-SBAS is a bias accounting for the differences between the code tracking-loops in the SBAS's network and the user's GNSS receiver, and wherein B ISC-TGD is a bias that must be added for proper application of SBAS corrections to the C 1 /P 2 -based ionosphere-free combination. computing ionosphere-free pseudo ranges using code and carrier phases of GNSS signals; correcting said ionosphere-free pseudo ranges using satellite-based augmentation system (SBAS) clock and orbit corrections; and providing a microprocessor controller connected to said GNSS receiver; characterized by: computing a table of biases to further correct said pseudo ranges, each bias (B TOTAL) including at least one of a receiver group delay correction component and an inter-signal code bias correction component; uploading said table of biases (B TOTAL) into said receiver memory; computing locations of said receiver using said further corrected pseudo ranges; wherein a separate one of said bias valves (B TOTAL) is provided for each of multiple GNSS satellites; wherein B TOTAL = B ISC_TGD + B USER-SBAS, where B USER-SBAS is a bias accounting for the differences between the code tracking-loops in the SBAS's network and the user's GNSS receiver, and wherein B ISC-TGD is a bias that must be added for proper application of SBAS corrections to the C 1 /P 2 -based ionosphere-free combination. computing a table of biases to further correct said pseudo ranges, each bias (B TOTAL) including at least one of a receiver group delay correction component and an inter-signal code bias correction component; uploading said table of biases (B TOTAL) into said receiver memory; computing locations of said receiver using said further corrected pseudo ranges; wherein a separate one of said bias valves (B TOTAL) is provided for each of multiple GNSS satellites; wherein B TOTAL = B ISC_TGD + B USER-SBAS, where B USER-SBAS is a bias accounting for the differences between the code tracking-loops in the SBAS's network and the user's GNSS receiver, and wherein B ISC-TGD is a bias that must be added for proper application of SBAS corrections to the C 1 /P 2 -based ionosphere-free combination.
A belt for an elevator system, comprising: a tension member extending at least partially across a belt width and extending longitudinally along a length of the belt, the tension member formed at least partially from a plurality of aromatic polyester based fibers; and a jacket material at least partially encapsulating the tension member, whereby the tension member includes a cord including a plurality of load carrying fibers selected from carbon, glass, aramid, nylon and polymer fibers; characterized in that the tension member further includes at least one layer of aromatic polyester based fibers at least partially surrounding the cord. a tension member extending at least partially across a belt width and extending longitudinally along a length of the belt, the tension member formed at least partially from a plurality of aromatic polyester based fibers; and a jacket material at least partially encapsulating the tension member, whereby the tension member includes a cord including a plurality of load carrying fibers selected from carbon, glass, aramid, nylon and polymer fibers; characterized in that the tension member further includes at least one layer of aromatic polyester based fibers at least partially surrounding the cord.
A display device, comprising: a substrate, comprising a display area and a non-display area adjacent to the display area; a plurality of transistors, disposed on the display area of the substrate; a plurality of display units, disposed on the display area of the substrate and electrically connected to the plurality of transistors, wherein the plurality of display units are light emitting diodes; a plurality of alignment marks (AM1/AM2), disposed on the substrate; and a plurality of sub-pixel units (U1/U1') arranged in an array within the display area, wherein each pixel comprises a transistor from the plurality of transistors, the transistor comprising a gate electrode and a source/drain electrode (114/116) and a display unit from the plurality of display units and wherein the display device is characterized in that each of the plurality of sub-pixel units has a pair of alignment marks of the plurality of alignment marks located at two different positions on the sub-pixel unit which are positioned along an extending direction of a diagonal line of the sub-pixel unit, and the plurality of alignment marks (AM1/AM2) and the gate electrode are formed in the same layer and comprise the same material; or the plurality of alignment marks (AM1/AM2) and the source/drain electrode (114/116) are formed in the same layer and comprise the same material. a substrate, comprising a display area and a non-display area adjacent to the display area; a plurality of transistors, disposed on the display area of the substrate; a plurality of display units, disposed on the display area of the substrate and electrically connected to the plurality of transistors, wherein the plurality of display units are light emitting diodes; a plurality of alignment marks (AM1/AM2), disposed on the substrate; and a plurality of sub-pixel units (U1/U1') arranged in an array within the display area, wherein each pixel comprises a transistor from the plurality of transistors, the transistor comprising a gate electrode and a source/drain electrode (114/116) and a display unit from the plurality of display units and wherein the display device is characterized in that each of the plurality of sub-pixel units has a pair of alignment marks of the plurality of alignment marks located at two different positions on the sub-pixel unit which are positioned along an extending direction of a diagonal line of the sub-pixel unit, and the plurality of alignment marks (AM1/AM2) and the gate electrode are formed in the same layer and comprise the same material; or the plurality of alignment marks (AM1/AM2) and the source/drain electrode (114/116) are formed in the same layer and comprise the same material.
An electronic device comprising: a substrate; a protruding pattern disposed on the substrate and protruded upward from the substrate; a first conductive pattern disposed on the substrate and covering the protruding pattern; an insulating layer disposed on the first conductive pattern, the insulating layer comprising an opening (IL-OP) overlapping the protruding pattern protruded upward from the substrate; and a second conductive pattern disposed on the insulating layer, the second conductive pattern being connected to the first conductive pattern through the opening (IL-OP) on the protruding pattern, and wherein the connected portion of the second pattern connected to the first conductive pattern is protruded upward along the protruding pattern. a substrate; a protruding pattern disposed on the substrate and protruded upward from the substrate; a first conductive pattern disposed on the substrate and covering the protruding pattern; an insulating layer disposed on the first conductive pattern, the insulating layer comprising an opening (IL-OP) overlapping the protruding pattern protruded upward from the substrate; and a second conductive pattern disposed on the insulating layer, the second conductive pattern being connected to the first conductive pattern through the opening (IL-OP) on the protruding pattern, and wherein the connected portion of the second pattern connected to the first conductive pattern is protruded upward along the protruding pattern.
A method for determining control parameters for controlling flight of a formation comprising at least two physically connected Unmanned Aerial Vehicles, UAVs, (2, 2a-c) the method being characterized in that the method is performed in a controller device and comprises the steps of: determining UAVs (2, 2a-c) forming part of the formation; controlling each one of the UAVs, in sequence, to perform a lift off procedure in which the UAV lifts off ground and lands on ground; acquiring, for each lift off procedure, inertial data from Inertial Measurement Units, IMUs, of each one of the UAVs (2, 2a-c) of the formation; estimating UAV connection parameters for each possible pair of UAVs (2, 2a-c) of the formation based on the inertial data, the UAV connection parameter comprising at least one of relative orientation, absolute orientations and distance between the UAVs of the pair; and determining control parameters for controlling flight of the formation based on the estimated connection parameters. determining UAVs (2, 2a-c) forming part of the formation; controlling each one of the UAVs, in sequence, to perform a lift off procedure in which the UAV lifts off ground and lands on ground; acquiring, for each lift off procedure, inertial data from Inertial Measurement Units, IMUs, of each one of the UAVs (2, 2a-c) of the formation; estimating UAV connection parameters for each possible pair of UAVs (2, 2a-c) of the formation based on the inertial data, the UAV connection parameter comprising at least one of relative orientation, absolute orientations and distance between the UAVs of the pair; and determining control parameters for controlling flight of the formation based on the estimated connection parameters.
Method for discriminating and attenuating pre-echo in a digital audio signal generated from a transform coding, in which, upon decoding, for a current frame decomposed into sub-blocks, the low-energy sub-blocks preceding a sub-block in which a transition or onset is detected determine a pre-echo zone in which a pre-echo attenuation processing is carried out, the method being characterized in that, in the case where an onset is detected from the third sub-block of the current frame, it comprises the following steps: - calculation of a leading coefficient of the energies for at least two sub-blocks of the current frame preceding the sub-block in which an onset is detected; - comparison of the leading coefficient to a predefined threshold; and - inhibition of the pre-echo attenuation processing in the pre-echo zone in the case where the calculated leading coefficient is below the predefined threshold. - calculation of a leading coefficient of the energies for at least two sub-blocks of the current frame preceding the sub-block in which an onset is detected; - comparison of the leading coefficient to a predefined threshold; and - inhibition of the pre-echo attenuation processing in the pre-echo zone in the case where the calculated leading coefficient is below the predefined threshold.
Method for selecting a CHO cell clone comprising the following steps: a) determining for each of at least one CHO cell clone, which comprises a nucleic acid comprising a structural gene encoding a polypeptide operably linked to a promoter nucleic acid that has the nucleic acid sequence of SEQ ID NO: 01, the methylation frequency of a CpG-site at position 425 of SEQ ID NO: 01 based on the methylation determined for at least 10 copies of the nucleic acid or in at least 10 cells obtained from a cultivation of each CHO cell clone, b) selecting a CHO cell clone in which the methylation frequency as determined is below 5 %, whereby the determining comprises the following steps: 1) isolating the DNA from each of the CHO cell clones, 2) performing for each isolated DNA individually a polymerase chain reaction with the methylation specific primer pair of SEQ ID NO: 11 and 18 and the universal primer pair of SEQ ID NO: 09 and 11, 3) determining with the results obtained in step 2) the methylation frequency of the CpG-site. a) determining for each of at least one CHO cell clone, which comprises a nucleic acid comprising a structural gene encoding a polypeptide operably linked to a promoter nucleic acid that has the nucleic acid sequence of SEQ ID NO: 01, the methylation frequency of a CpG-site at position 425 of SEQ ID NO: 01 based on the methylation determined for at least 10 copies of the nucleic acid or in at least 10 cells obtained from a cultivation of each CHO cell clone, b) selecting a CHO cell clone in which the methylation frequency as determined is below 5 %, 1) isolating the DNA from each of the CHO cell clones, 2) performing for each isolated DNA individually a polymerase chain reaction with the methylation specific primer pair of SEQ ID NO: 11 and 18 and the universal primer pair of SEQ ID NO: 09 and 11, 3) determining with the results obtained in step 2) the methylation frequency of the CpG-site.