mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for dredging detrital material from a tubular foundation planted in a seabed, said apparatus for dredging comprising: - a support frame; - a plurality of crushing heads, mounted on said support frame in peripheral position, each comprising: - a first hydraulic motor, supplied by a pressurized fluid, and - at least one excavator tool, movable by said first hydraulic motor in order to remove detrital material from the tubular foundation; - at least one suction pump, fixed to said support frame and placed in a central portion of the latter, interposed between said crushing heads and comprising: - a second hydraulic motor, supplied by a pressurized fluid, and - a pump body, provided with a suction opening, arranged to suction said detrital material from the tubular foundation 100, and a discharge opening (42"), arranged to expel said detrital material outside the tubular foundation or to transfer said detrital material to a deposition zone. - a support frame; - a plurality of crushing heads, mounted on said support frame in peripheral position, each comprising: - a first hydraulic motor, supplied by a pressurized fluid, and - at least one excavator tool, movable by said first hydraulic motor in order to remove detrital material from the tubular foundation; - a first hydraulic motor, supplied by a pressurized fluid, and - at least one excavator tool, movable by said first hydraulic motor in order to remove detrital material from the tubular foundation; - at least one suction pump, fixed to said support frame and placed in a central portion of the latter, interposed between said crushing heads and comprising: - a second hydraulic motor, supplied by a pressurized fluid, and - a pump body, provided with a suction opening, arranged to suction said detrital material from the tubular foundation 100, and a discharge opening (42"), arranged to expel said detrital material outside the tubular foundation or to transfer said detrital material to a deposition zone. - a second hydraulic motor, supplied by a pressurized fluid, and - a pump body, provided with a suction opening, arranged to suction said detrital material from the tubular foundation 100, and a discharge opening (42"), arranged to expel said detrital material outside the tubular foundation or to transfer said detrital material to a deposition zone.
A system for attaching a thermal battery to a flange of a power supply section of an underwater craft such as a torpedo, comprising a fixing sleeve (6; 10) arranged around and fixed to the battery and provided with fixing lugs (11, 12, 13) comprising holes (14, 15, 16) for the passage of screws for attachment to the flange, characterized in that the sleeve (6; 10) is in the overall shape of a C of which the intermediate part and the ends of the branches comprise the fixing lugs for fixing this sleeve to the flange.
A method of preparing a conjugation-competent polypeptide, comprising: a) providing a three-dimensional model comprising at least one instance of an albumin sequence and, optionally, providing an amino acid sequence of that albumin sequence, b) selecting an amino acid residue in the albumin sequence which corresponds to position 294 of SEQ ID NO: 1; c) substituting the residue at position 294 with Cysteine or inserting Cysteine at the N-side or C-side of the residue at position 294, d) optionally, making additional alterations to the albumin sequence where each alteration is an amino acid deletion, substitution, or insertion, and e) preparing a polypeptide having the resulting amino acid sequence. a) providing a three-dimensional model comprising at least one instance of an albumin sequence and, optionally, providing an amino acid sequence of that albumin sequence, b) selecting an amino acid residue in the albumin sequence which corresponds to position 294 of SEQ ID NO: 1; c) substituting the residue at position 294 with Cysteine or inserting Cysteine at the N-side or C-side of the residue at position 294, d) optionally, making additional alterations to the albumin sequence where each alteration is an amino acid deletion, substitution, or insertion, and e) preparing a polypeptide having the resulting amino acid sequence.
Air resistance-reducing device for a vehicle, wherein the air resistance-reducing device comprises at least: a first air guide element A and a second air guide element B which can be adjusted between a rest position and a travel position for contour extension and aerodynamic air guidance, wherein the first air guide element A and the second air guide element B can be adjusted between the rest position and the travel position by means of an actuator, characterized in that at least one connecting element of the air resistance-reducing device comprises at least: a coupling element which connects the actuator to the at least one connecting element, a first leg which connects the coupling element to the first air guide element A, a second leg which connects the coupling element to the second air guide element B, and a third leg which connects the first leg to the second leg.
A base plate of an ostomy system, the base plate comprising: a first adhesive layer having a distal surface and a proximal surface, the proximal surface being configured for attachment of the base plate to the skin surface of a user, the first adhesive layer having a stomal opening with a center point; a plurality of electrodes disposed on the distal surface of the first adhesive layer; and a plurality of sensing zones, each sensing zone covering one of a plurality of regions of the first adhesive layer, each of the plurality of sensing zones including at least two of the plurality of electrodes, wherein the plurality of electrodes is configured for measurements of one or more resistances in each of the plurality of sensing zones between the plurality of electrodes, such as to determine moisture content of the first adhesive layer at each of the plurality of sensing zones based on the measured one or more resistances. a first adhesive layer having a distal surface and a proximal surface, the proximal surface being configured for attachment of the base plate to the skin surface of a user, the first adhesive layer having a stomal opening with a center point; a plurality of electrodes disposed on the distal surface of the first adhesive layer; and a plurality of sensing zones, each sensing zone covering one of a plurality of regions of the first adhesive layer, each of the plurality of sensing zones including at least two of the plurality of electrodes,
A method of preparing polycrystalline diamond with thermally stable phases in the interstitial spaces between the sintered diamond grains comprising: sweeping a diamond powder with a binder to form sintered PCD; reacting said binder in its molten phase with a temporary barrier separating said binder and said diamond from a silicon (Si) source; and sweeping said sintered PCD with said Si source to form SiC bonded PCD. sweeping a diamond powder with a binder to form sintered PCD; reacting said binder in its molten phase with a temporary barrier separating said binder and said diamond from a silicon (Si) source; and sweeping said sintered PCD with said Si source to form SiC bonded PCD.
A hybrid expansion unit for use within a hybrid distributed antenna system, the hybrid expansion unit comprising: at least one digital communication interface configured to communicate with a remote upstream device (104, 110) using a first set of N-bit words of digitized spectrum, wherein the remote upstream device (104, 110) is remotely located from and external to the hybrid expansion unit; at least one analog communication interface configured to communicate with a remote downstream device (108, 402, 404) using first signals within a first set of bands of analog spectrum, wherein the remote downstream device (108, 402, 404) is remotely located from and external to the hybrid expansion unit, wherein the remote downstream device (108, 402, 404) is communicatively coupled to an antenna; wherein the hybrid expansion unit is configured to convert the first set of N-bit words of digitized spectrum into the first signals within the first set of bands of analog spectrum; and wherein the hybrid expansion unit is further configured to communicate a first switching control signal to the remote downstream device (108, 402, 404), wherein the first switching control signal indicates when a switch (614, 1010) should be selected between a transmitter and a receiver, wherein the switch (614, 1010) is remotely located from and external to the hybrid expansion unit and positioned in a data path between the hybrid expansion unit and the antenna. at least one digital communication interface configured to communicate with a remote upstream device (104, 110) using a first set of N-bit words of digitized spectrum, wherein the remote upstream device (104, 110) is remotely located from and external to the hybrid expansion unit; at least one analog communication interface configured to communicate with a remote downstream device (108, 402, 404) using first signals within a first set of bands of analog spectrum, wherein the remote downstream device (108, 402, 404) is remotely located from and external to the hybrid expansion unit, wherein the remote downstream device (108, 402, 404) is communicatively coupled to an antenna; wherein the hybrid expansion unit is configured to convert the first set of N-bit words of digitized spectrum into the first signals within the first set of bands of analog spectrum; and wherein the hybrid expansion unit is further configured to communicate a first switching control signal to the remote downstream device (108, 402, 404), wherein the first switching control signal indicates when a switch (614, 1010) should be selected between a transmitter and a receiver, wherein the switch (614, 1010) is remotely located from and external to the hybrid expansion unit and positioned in a data path between the hybrid expansion unit and the antenna.
A sample analysis system for analyzing a sample, comprising: at least one test device for analyzing the sample; and a rack handler operable to move a sample rack from a first location to a second location along a travel path, the rack handler having a rotation assembly including a) an engagement element for engagement with the sample rack, and b) a motor coupled to the engagement element and is operable to cause rotation of the engagement element, wherein the rotation assembly rotates the sample rack from a first orientation into a second orientation along the travel path when the engagement element engages the sample rack when the sample rack is disposed on the rack handler characterized in that the engagement element includes a base and a protrusion that projects upward from the base, wherein when the sample rack is present on the rack handler, rotation of the engagement element when the protrusion engages the sample rack cause the sample rack to rotate about a vertical axis, and wherein the sample rack includes a slot and the engagement element is rotated in the slot of the sample rack. at least one test device for analyzing the sample; and a rack handler operable to move a sample rack from a first location to a second location along a travel path, the rack handler having a rotation assembly including a) an engagement element for engagement with the sample rack, and b) a motor coupled to the engagement element and is operable to cause rotation of the engagement element, wherein the rotation assembly rotates the sample rack from a first orientation into a second orientation along the travel path when the engagement element engages the sample rack when the sample rack is disposed on the rack handler characterized in that the engagement element includes a base and a protrusion that projects upward from the base, wherein when the sample rack is present on the rack handler, rotation of the engagement element when the protrusion engages the sample rack cause the sample rack to rotate about a vertical axis, and wherein the sample rack includes a slot and the engagement element is rotated in the slot of the sample rack.
A method of preparing a compound of Formula I-b, comprising providing nicotine of Formula I-a as a mixture of the - and -enantiomer separating enantiomers of the compound of Formula I-a by addition of a chiral O,O'-disubstituted tartaric acid, wherein the chiral O,O'-disubstituted tartaric acid comprises the L-enantiomer; and obtaining the compound of Formula I-b, wherein the O,O'-disubstituted tartaric acid is a mixture of the L-enantiomer and the D-enantiomer, wherein the molar ratio of the L-enantiomer to the D-enantiomer is 90:10 or more and 95:5 or less, and wherein the addition of the chiral O,O'-disubstituted tartaric acid is carried out with ethanol as solvent.
An acoustic echo cancellation device comprising: an adder configured to generate an addition signal by adding a first input signal outputted from a first microphone and a second input signal outputted from a second microphone to each other; a first echo canceller configured to produce, using the addition signal and a reproduced signal outputted to a speaker, a first pseudo echo signal which indicates a component of the reproduced signal contained in the addition signal; a second echo canceller configured to produce, using the first input signal and the first pseudo echo signal, a second pseudo echo signal which indicates a component of the first pseudo echo signal contained in the first input signal, and to cancel an acoustic echo component of the first input signal using the produced second pseudo echo signal; and a third echo canceller configured to produce, using the second input signal and the first pseudo echo signal, a third pseudo echo signal which indicates a component of the first pseudo echo signal contained in the second input signal, and to cancel an acoustic echo component of the second input signal using the produced third pseudo echo signal. an adder configured to generate an addition signal by adding a first input signal outputted from a first microphone and a second input signal outputted from a second microphone to each other; a first echo canceller configured to produce, using the addition signal and a reproduced signal outputted to a speaker, a first pseudo echo signal which indicates a component of the reproduced signal contained in the addition signal; a second echo canceller configured to produce, using the first input signal and the first pseudo echo signal, a second pseudo echo signal which indicates a component of the first pseudo echo signal contained in the first input signal, and to cancel an acoustic echo component of the first input signal using the produced second pseudo echo signal; and a third echo canceller configured to produce, using the second input signal and the first pseudo echo signal, a third pseudo echo signal which indicates a component of the first pseudo echo signal contained in the second input signal, and to cancel an acoustic echo component of the second input signal using the produced third pseudo echo signal.
A method comprising: receiving, by a switch device within a data center of a leaf and spine network, multicast traffic from a multicast source; in response to receiving the multicast traffic from the multicast source and without flooding the multicast traffic to the data center, sending, by the switch device and to a border device within the data center that is communicatively coupled to a multicast rendezvous point external to the data center, a source-active routing message to indicate that the switch device is receiving multicast traffic from the multicast source; receiving, by the switch device and from the border device, a response to the source-active routing message including an extended community that indicates whether there are any interested multicast receivers; and configuring, by the switch device, a forwarding engine of the switch device based on the extended community. receiving, by a switch device within a data center of a leaf and spine network, multicast traffic from a multicast source; in response to receiving the multicast traffic from the multicast source and without flooding the multicast traffic to the data center, sending, by the switch device and to a border device within the data center that is communicatively coupled to a multicast rendezvous point external to the data center, a source-active routing message to indicate that the switch device is receiving multicast traffic from the multicast source; receiving, by the switch device and from the border device, a response to the source-active routing message including an extended community that indicates whether there are any interested multicast receivers; and configuring, by the switch device, a forwarding engine of the switch device based on the extended community.
ABMS recognition system, comprising: a master BMS having a master light emitting unit, the master BMS being configured to flicker the master light emitting unit to transmit an operation mode shifting signal to a slave BMS when it is intended to shift an operation mode of the slave BMS; and a slave BMS having a slave light receiving unit configured to correspond to the master light emitting unit, the slave BMS being configured to recognize the flickering of the master light emitting unit through the slave light receiving unit and shift the operation mode thereof in response to the operation mode shifting signal. a master BMS having a master light emitting unit, the master BMS being configured to flicker the master light emitting unit to transmit an operation mode shifting signal to a slave BMS when it is intended to shift an operation mode of the slave BMS; and a slave BMS having a slave light receiving unit configured to correspond to the master light emitting unit, the slave BMS being configured to recognize the flickering of the master light emitting unit through the slave light receiving unit and shift the operation mode thereof in response to the operation mode shifting signal.
A process for producing digitally imaged products, comprising the steps of: storing a plurality digital images in a database accessible to a central computing device; encrypting each of the digital images with a public key that is unique to each digital image of the plurality of digital images; selecting a digital image from the plurality of digital images; providing payment information to the central computing device for an imaged substrate imaged with the selected digital image; providing an imaged product producer with a private key; the central computing device selecting the imaged product producer to produce an imaged product imaged with the selected digital image; the imaged product producer decrypting the image using a private key assigned to the imaged product producer; producing the imaged substrate comprising the selected digital image formed on the substrate; and the central computing device allocating a portion of the payment for the imaged substrate imaged with the selected digital image to a creator of the digital image. storing a plurality digital images in a database accessible to a central computing device; encrypting each of the digital images with a public key that is unique to each digital image of the plurality of digital images; selecting a digital image from the plurality of digital images; providing payment information to the central computing device for an imaged substrate imaged with the selected digital image; providing an imaged product producer with a private key; the central computing device selecting the imaged product producer to produce an imaged product imaged with the selected digital image; the imaged product producer decrypting the image using a private key assigned to the imaged product producer; producing the imaged substrate comprising the selected digital image formed on the substrate; and the central computing device allocating a portion of the payment for the imaged substrate imaged with the selected digital image to a creator of the digital image.
A decoder for decoding a low-density parity-check convolutional turbo code, LDPC-CTC, wherein the LDPC-CTC is constructed based on parallel low-density parity-check convolutional codes, LDPC-CCs, the decoder being configured to: determine, based on a received signal, statistical values corresponding to information and parity bits of an encoded information bit sequence; wherein the statistical values refer to reliability values corresponding to received information and parity bits, wherein a reliability value is a likelihood, likelihood ratio, or log likelihood ratio, and indicates the reliability of making a correct decision if mapping the received signal to a particular bit value; start a new decoding iteration if a number of determined statistical values equals or exceeds a threshold, wherein a decoding iteration includes updating the determined statistical values based on actual determined statistical values and statistical values from a previous decoding iteration stored in a memory of the decoder; wherein the threshold equals the number of information and parity bits of one layer of the LDPC-CTC; wherein said one layer refers to one row for each LDPC-CC matrix on which the LDPC-CTC is based; replace a stored statistical value stored in the memory with an updated statistical value, wherein the updated statistical value is kept in the memory for a number of succeeding decoding iterations; and decode the information bits to which the updated stored statistical values correspond. determine, based on a received signal, statistical values corresponding to information and parity bits of an encoded information bit sequence; wherein the statistical values refer to reliability values corresponding to received information and parity bits, wherein a reliability value is a likelihood, likelihood ratio, or log likelihood ratio, and indicates the reliability of making a correct decision if mapping the received signal to a particular bit value; start a new decoding iteration if a number of determined statistical values equals or exceeds a threshold, wherein a decoding iteration includes updating the determined statistical values based on actual determined statistical values and statistical values from a previous decoding iteration stored in a memory of the decoder; wherein the threshold equals the number of information and parity bits of one layer of the LDPC-CTC; wherein said one layer refers to one row for each LDPC-CC matrix on which the LDPC-CTC is based; replace a stored statistical value stored in the memory with an updated statistical value, wherein the updated statistical value is kept in the memory for a number of succeeding decoding iterations; and decode the information bits to which the updated stored statistical values correspond.
A prosthetic device comprising at least one part made of a polymer composition [composition, herein after] comprising (i) at least one polyaryletherketone polymer [(PAEK) polymer], (ii) at least one nitride of an element having an electronegativity (ε) of from 1.3 to 2.5, as defined in « Handbook of Chemistry and Physics », CRC Press, 64 th edition, pages B-65 to B-158. (i) at least one polyaryletherketone polymer [(PAEK) polymer], (ii) at least one nitride of an element having an electronegativity (ε) of from 1.3 to 2.5, as defined in « Handbook of Chemistry and Physics », CRC Press, 64 th edition, pages B-65 to B-158.
A connection device (30, 30') for fluid transmission piping of an aircraft or spacecraft, the device being suitable for connecting two tubes (10 and 20) to one another and optionally furthermore to a fluid tank, the device comprising an injection-molded tip (31, 31', 31", 31'") that has at least one bent or curved zone and that is made from a composite material with a thermoplastic matrix reinforced by a reinforcing system comprising carbon fibers, the tip having a median longitudinal mold parting plane, characterized in that said carbon fibers extend in an oriented manner along the tip, which incorporates mechanical and vibrational stiffening means (39, 39a and 39b, 39c) that are molded to be integral with the tip and extend in said parting plane or symmetrically relative to that plane in said at least one bent or curved zone and/or in the immediate vicinity of that zone.