mhurhangee/ep-ind-claims huggingface dataset:
A diagnostic laboratory distribution system, wherein the distribution system comprises a number of carriers wherein the carriers are adapted to carry one or more goods, a transport plane wherein the transport plane is adapted to support the carriers, drive means, wherein the drive means are adapted to move the carriers on the transport plane, and a control device to control the drive means, wherein the distribution system comprises a cover for the transport plane, wherein the distribution system comprises humidity sensors to measure humidity above the transport plane connected to the control device and airflow generating devices connected to the control device, wherein the airflow generating devices are distributed over the distribution system to generate an airflow between the cover and the transport plane, wherein the control device is configured to start the airflow generating devices if the humidity sensors measure a humidity above a pre-defined threshold value, wherein the airflow generating devices generate a laminar airflow. a number of carriers wherein the carriers are adapted to carry one or more goods, a transport plane wherein the transport plane is adapted to support the carriers, drive means, wherein the drive means are adapted to move the carriers on the transport plane, and a control device to control the drive means, wherein the distribution system comprises a cover for the transport plane, wherein the distribution system comprises humidity sensors to measure humidity above the transport plane connected to the control device and airflow generating devices connected to the control device, wherein the airflow generating devices are distributed over the distribution system to generate an airflow between the cover and the transport plane, wherein the control device is configured to start the airflow generating devices if the humidity sensors measure a humidity above a pre-defined threshold value, wherein the airflow generating devices generate a laminar airflow.
A method for pulverizing solids, in which chunky material is pulverized in a grinding mechanism, thereafter floating solids conveyed by air such as dust or the like are separated and the air is subsequently dedusted, wherein a part of the air is diverted after the pulverization and before the dedusting and supplied back to the grinding mechanism, characterized in that the air diverted before the dedusting is fed into a solid infeed or an outlet region of the grinding mechanism.
A heat exchanger system (401, 501) comprising: a fluid tank (420, 520) through which a first fluid passes; a lid adapted to seal the fluid tank and comprising a first-fluid inlet to permit a first fluid to enter the fluid tank and a first-fluid outlet to permit the first fluid to exit the fluid tank, characterised by comprising a microchannel evaporator (200, 300, 400, 500) disposed within the fluid tank (420, 520), the microchannel evaporator (200, 300, 400, 500) comprising: a plurality of microchannels (206, 306, 406) each of the plurality of microchannels comprising a first end and a second end; a first end-tank (202, 402) coupled to each first end of the plurality of microchannels (206, 306, 406); a second end-tank (204, 404) coupled to each second end of the plurality of microchannels; an inlet (203, 403) coupled to the first end-tank (202, 404) for receiving a second fluid into the microchannel evaporator; an outlet coupled to the second end-tank (204, 404)for expelling the second fluid from the microchannel evaporator; and wherein each microchannel of the plurality of microchannels is substantially U-shaped and is spaced apart from an adjacent microchannel of the plurality of microchannels such that at least one gap is formed; and a first baffle placed within the fluid tank and positioned between the plurality of microchannels so that the first fluid is forced to pass through at least one gap between adjacent microchannels a first time. a plurality of microchannels (206, 306, 406) each of the plurality of microchannels comprising a first end and a second end; a first end-tank (202, 402) coupled to each first end of the plurality of microchannels (206, 306, 406); a second end-tank (204, 404) coupled to each second end of the plurality of microchannels; an inlet (203, 403) coupled to the first end-tank (202, 404) for receiving a second fluid into the microchannel evaporator; an outlet coupled to the second end-tank (204, 404)for expelling the second fluid from the microchannel evaporator; and wherein each microchannel of the plurality of microchannels is substantially U-shaped and is spaced apart from an adjacent microchannel of the plurality of microchannels such that at least one gap is formed; and
A method for stabilizing the state of polarization of a polarization multiplexed optical radiation, said polarization multiplexed optical radiation comprising an optical carrier generating a channel which is provided with a pilot signal to uniquely identify said channel, the method comprising: providing to the polarization multiplexed optical radiation a first controllable polarization transformation to generate a first transformed optical radiation; measuring a first optical power of a polarized portion of the optical radiation of the optical carrier of said identified channel of the first transformed optical radiation; controlling, responsively to said first optical power, the first controllable polarization transformation so that the optical radiation of the optical carrier of the identified channel of the first transformed optical radiation has a predefined polarization azimuth; providing to the first transformed optical radiation a second controllable polarization transformation to generate a second transformed optical radiation; measuring a second optical power of a polarized portion of the optical radiation of the optical carrier of said identified channel of the second transformed optical radiation; controlling, responsively to said second optical power, the second controllable polarization transformation so that the optical radiation of the optical carrier of the identified channel of the second transformed optical radiation has a predefined state of polarization. providing to the polarization multiplexed optical radiation a first controllable polarization transformation to generate a first transformed optical radiation; measuring a first optical power of a polarized portion of the optical radiation of the optical carrier of said identified channel of the first transformed optical radiation; controlling, responsively to said first optical power, the first controllable polarization transformation so that the optical radiation of the optical carrier of the identified channel of the first transformed optical radiation has a predefined polarization azimuth; providing to the first transformed optical radiation a second controllable polarization transformation to generate a second transformed optical radiation; measuring a second optical power of a polarized portion of the optical radiation of the optical carrier of said identified channel of the second transformed optical radiation; controlling, responsively to said second optical power, the second controllable polarization transformation so that the optical radiation of the optical carrier of the identified channel of the second transformed optical radiation has a predefined state of polarization.
A polynucleic acid molecule that mediates RNA interference against CTNNB1, comprising a sense strand and an antisense strand, wherein (i) the sense strand comprises the sequence: iBcsuGfuUfgGfaUfuGfaUfuCfgAfaAfusuiB; and (ii) the antisense strand comprises the sequence: usUfsusCfgAfaUfcAfaUfcCfaAfcAfgusu, wherein lower case (n) = 2'-O-Me; Nf = 2'-F; s = phosphorothioate backbone modification; and iB = inverted abasic residue; wherein the polynucleic acid molecule hybridizes to a CTNNB1 target sequence; and wherein the polynucleic acid molecule comprises from 90% to 100% modification. wherein (i) the sense strand comprises the sequence: iBcsuGfuUfgGfaUfuGfaUfuCfgAfaAfusuiB; and (ii) the antisense strand comprises the sequence: usUfsusCfgAfaUfcAfaUfcCfaAfcAfgusu, wherein lower case (n) = 2'-O-Me; Nf = 2'-F; s = phosphorothioate backbone modification; and iB = inverted abasic residue; (i) the sense strand comprises the sequence: iBcsuGfuUfgGfaUfuGfaUfuCfgAfaAfusuiB; and (ii) the antisense strand comprises the sequence: usUfsusCfgAfaUfcAfaUfcCfaAfcAfgusu, wherein the polynucleic acid molecule hybridizes to a CTNNB1 target sequence; and wherein the polynucleic acid molecule comprises from 90% to 100% modification.
A method for providing at least one packet-oriented end-to-end connection from a terminal unit to another network via at least one connection in a mobile telecommunications network (204, 206), a set-up of the connection comprising an assignment of an address for addressing data packets to the terminal unit, and whereby a modem that is connected to the mobile telecommunications network (204, 206) via an air interface transfers the address to the terminal unit and forwards data packets of the end-to-end connection that have been received from the mobile telecommunications network (204, 206) to the terminal unit, the data packets being forwarded in an association with the connection, characterized in that no address is associated with the modem, so that the end-to-end connection is not terminated in the modem, whereby the data packets are associated with the connection using an identifier that is different from the address, wherein the identifier is linked to the data packets, and wherein the identifier is stored in the modem in an association with the connection.
A multicast communications method, applied to an aggregation switch, AGG, and comprising: acquiring a multicast group address link state protocol data unit, GM LSP, packet sent by an access switch, ACC, wherein the ACC is connected to a receiver of a multicast group, and the AGG is an aggregation point of multiple ACCs; comparing multicast join information in the GM LSP packet with multicast join information that is stored in the AGG and updated last time, to obtain a comparison result, and updating, according to the comparison result, the multicast join information stored in the AGG; when there is changed multicast join information in the comparison result, generating, according to the comparison result, a preset-protocol packet according to a preset format, wherein the preset-protocol packet is an Internet Group Management Protocol, IGMP, packet or a Protocol Independent Multicast, PIM, packet; and sending the preset-protocol packet to a first multicast router, so that the first multicast router generates a multicast forwarding entry according to the preset-protocol packet. acquiring a multicast group address link state protocol data unit, GM LSP, packet sent by an access switch, ACC, wherein the ACC is connected to a receiver of a multicast group, and the AGG is an aggregation point of multiple ACCs; comparing multicast join information in the GM LSP packet with multicast join information that is stored in the AGG and updated last time, to obtain a comparison result, and updating, according to the comparison result, the multicast join information stored in the AGG; when there is changed multicast join information in the comparison result, generating, according to the comparison result, a preset-protocol packet according to a preset format, wherein the preset-protocol packet is an Internet Group Management Protocol, IGMP, packet or a Protocol Independent Multicast, PIM, packet; and sending the preset-protocol packet to a first multicast router, so that the first multicast router generates a multicast forwarding entry according to the preset-protocol packet.
A method for providing a transit stop forecast in a self-learning transit system comprising a control center and a transit vehicle unit installed into a transit vehicle traveling on a transit route, wherein the transit route comprises a plurality of transitstops, the method comprising: a) providing a position information item by an information handling device of the transit vehicle unit to the control center, wherein the position information item comprises the actual time and date and a transit stop name, the information handling device receiving the actual time and date from a time clock circuit of the transit vehicle unit, and receiving the transit stop name and preconfigured geographical location data of the transit stop from a vehicle control unit of the transit vehicle unit, b) storing the position information item in a memory device of the control center, c) repeating steps (a) and (b) until a predetermined number of position information items have been stored, d) calculating by the control center a medial time table for each of the transit stops based on the stored position information items, and storing the medial time table in the memory device, and e) providing the medial time table to the transit vehicle unit as the transit stop forecast, characterized in that the position information item is provided to the control center, if geographical location information provided by a geographical positioning system unit of the transit vehicle unit does not change for a predetermined amount of time and if the geographical location information of the transit vehicle provided by the geographical positioning system unit of the transit vehicle unit is equal to the preconfigured geographical location data of the transit stop, so that the information handling device determines that the transit vehicle has arrived at the transit stop. a) providing a position information item by an information handling device of the transit vehicle unit to the control center, wherein the position information item comprises the actual time and date and a transit stop name, the information handling device receiving the actual time and date from a time clock circuit of the transit vehicle unit, and receiving the transit stop name and preconfigured geographical location data of the transit stop from a vehicle control unit of the transit vehicle unit, b) storing the position information item in a memory device of the control center, c) repeating steps (a) and (b) until a predetermined number of position information items have been stored, d) calculating by the control center a medial time table for each of the transit stops based on the stored position information items, and storing the medial time table in the memory device, and e) providing the medial time table to the transit vehicle unit as the transit stop forecast,
Device for the separation of water, in particular water vapor, from a fluid flow containing water, in particular water vapor, including at least one water-permeable membrane body that delimits at least one membrane body interior space, wherein the membrane body interior space is suitable for being flowed through by at least one hydrophobic liquid for taking up water, in particular water vapor, that passes out of the fluid flow, through the membrane body and into the membrane body interior space, wherein the membrane body is of hollow cylindrical construction, characterized in that a supply facility having at least one supply channel that is arranged in the membrane body interior space, coaxially with respect to the longitudinal axis of the membrane body, is arranged, wherein the supply channel passes through the membrane body interior space at least over a part of the length of the membrane body interior space, wherein a removal facility is arranged in the region of an annular space that radially surrounds the at least one supply channel.
A method implemented as executable instructions, wherein the instructions reside in a non-transitory computer-readable medium and are executed by one or more processors of a valuable media depository, the method comprising: (i) selecting reference images for media items from a plurality of visible light images of the media items; (ii) calculating infrared residual images from IR images of the media items and the selected reference images by iterating pixel coordinates for the IR images and the selected reference images, wherein iterating further includes calculating a relative difference between each pixel coordinate value in each IR image and a corresponding selected reference image to produce a particular IR residual image, wherein calculating further includes producing the relative difference as a difference between each pixel coordinate value divided by a sum of each pixel coordinate value; (iii) extracting features of the IR residual images as a template; and (iv) applying the template to an IR image of a presented media item having an embedded IR security feature for assisting in determining whether the presented media item is acceptable for further downstream processing within the valuable media depository. (i) selecting reference images for media items from a plurality of visible light images of the media items; (ii) calculating infrared residual images from IR images of the media items and the selected reference images by iterating pixel coordinates for the IR images and the selected reference images, wherein iterating further includes calculating a relative difference between each pixel coordinate value in each IR image and a corresponding selected reference image to produce a particular IR residual image, wherein calculating further includes producing the relative difference as a difference between each pixel coordinate value divided by a sum of each pixel coordinate value; (iii) extracting features of the IR residual images as a template; and (iv) applying the template to an IR image of a presented media item having an embedded IR security feature for assisting in determining whether the presented media item is acceptable for further downstream processing within the valuable media depository.
A notification device mounted on a vehicle, comprising: an acquisition unit configured to acquire information indicating that a driver's vehicle is receiving driving assistance in which the driver's vehicle is automatically driven; an output unit configured to output notification to other vehicles in accordance with the information acquired by the acquisition unit; a radio unit configured to transmit a packet signal including the notification output from the output unit; and a display unit configured to light in accordance with the notification output from the output unit. an acquisition unit configured to acquire information indicating that a driver's vehicle is receiving driving assistance in which the driver's vehicle is automatically driven; an output unit configured to output notification to other vehicles in accordance with the information acquired by the acquisition unit; a radio unit configured to transmit a packet signal including the notification output from the output unit; and a display unit configured to light in accordance with the notification output from the output unit.
A method of generating a magnetic resonance spectroscopy image of a material of interest, which has a resonant frequency smaller than the resonant frequency of water, the method comprising suppressing a water signal and reinforcing a metabolite signal by adjusting a central frequency of an excitation signal and a receiver bandwidth, wherein the method comprises: applying the size of the receiver bandwidth so as to be the same as a difference between the resonant frequency of water and the central frequency and applying the excitation signal adjusted so as to have a central frequency which is smaller than the resonant frequency of water, wherein the central frequency is a resonant frequency of a particular metabolite of interest.
An isolated immunogenic porcine circovirus Type II (PCVII) polypeptide comprising: (a) MTYPRRRYRR RRHRPRSHLG QILRRRPWLV HPRHRYRWRR KNGIFNTRLS RTFGYTVKRT TVTTPSWAVD MMRFKIDDFV PPGGGTNKIS IPFEYYRIRK VKVEFWPCSP ITQGDRGVGS TAVILDDNFV TKATALTYDP YVNYSSRHTI PQPFSYHSRY FTPKPVLDST IDYFQPNNKR NQLWLRLQTS GNVDHVGLGT AFENSKYDQD YNIRVTMYVQ FREFNLKDPP LEP (SEQ ID NO 5); or (b) a polypeptide derived from SEQ ID NO 5 having at least 95% identity to the full-length of SEQ ID NO 5; or (c) a fusion protein comprising (a) or (b). (a) MTYPRRRYRR RRHRPRSHLG QILRRRPWLV HPRHRYRWRR KNGIFNTRLS RTFGYTVKRT TVTTPSWAVD MMRFKIDDFV PPGGGTNKIS IPFEYYRIRK VKVEFWPCSP ITQGDRGVGS TAVILDDNFV TKATALTYDP YVNYSSRHTI PQPFSYHSRY FTPKPVLDST IDYFQPNNKR NQLWLRLQTS GNVDHVGLGT AFENSKYDQD YNIRVTMYVQ FREFNLKDPP LEP (SEQ ID NO 5); or (b) a polypeptide derived from SEQ ID NO 5 having at least 95% identity to the full-length of SEQ ID NO 5; or (c) a fusion protein comprising (a) or (b).
A method for manufacturing a layup kit for an airframe, comprising: applying a layup release layer to an obverse surface of a flexible carrier, compacting the layup release layer and the flexible carrier in a vacuum; laying down a first pre-patterned lamina in a first lamina orientation on the flexible carrier; iteratively layer down each of a plurality of subsequent laminae in a respective subsequent lamina orientation on the flexible carrier to fabricate a pre-patterned layup having a preselected pattern shaped to accommodate an airframe topological feature; wherein the pre-patterned layup is laid down in a predetermined layup orientation indexed to the flexible carrier, comprising providing an indexing element, including a fiducial element, on the flexible carrier to establish a spatial reference system corresponding to the flexible carrier; and performing a second compacting of the pre-patterned layup, the layup release layer and the flexible carrier in a vacuum. applying a layup release layer to an obverse surface of a flexible carrier, compacting the layup release layer and the flexible carrier in a vacuum; laying down a first pre-patterned lamina in a first lamina orientation on the flexible carrier; iteratively layer down each of a plurality of subsequent laminae in a respective subsequent lamina orientation on the flexible carrier to fabricate a pre-patterned layup having a preselected pattern shaped to accommodate an airframe topological feature; wherein the pre-patterned layup is laid down in a predetermined layup orientation indexed to the flexible carrier, comprising providing an indexing element, including a fiducial element, on the flexible carrier to establish a spatial reference system corresponding to the flexible carrier; and performing a second compacting of the pre-patterned layup, the layup release layer and the flexible carrier in a vacuum.