mhurhangee/ep-ind-claims huggingface dataset:
A single wire digital communication system comprising: a first transmitter logic buffer and a first receiver logic buffer operably coupled to a first single wire device via a first single wire communication bus; a first differential transceiver operational amplifier operably coupled to the first transmitter logic buffer via a first transmitter signal line and operably coupled to the first receiver logic buffer via a first receiver signal line; a second differential transceiver operational amplifier operably coupled to the first differential transceiver operational amplifier via at least one differential bus; and a second single wire device operably coupled to the differential bus and configured to communicate with the first single wire device characterized in that the first transmitter logic buffer and the first receiver logic buffer are configured to be enabled dependent upon whether the bus is in a dominant or passive state, wherein when a dominant state is detected, the first transmitter logic buffer is enabled to transmit data and the first receiver logic buffer is disabled and wherein when a passive state is detected, the first transmitter logic buffer is disabled and the first receiver logic buffer is enabled to receive data. a first transmitter logic buffer and a first receiver logic buffer operably coupled to a first single wire device via a first single wire communication bus; a first differential transceiver operational amplifier operably coupled to the first transmitter logic buffer via a first transmitter signal line and operably coupled to the first receiver logic buffer via a first receiver signal line; a second differential transceiver operational amplifier operably coupled to the first differential transceiver operational amplifier via at least one differential bus; and a second single wire device operably coupled to the differential bus and configured to communicate with the first single wire device characterized in that the first transmitter logic buffer and the first receiver logic buffer are configured to be enabled dependent upon whether the bus is in a dominant or passive state, wherein when a dominant state is detected, the first transmitter logic buffer is enabled to transmit data and the first receiver logic buffer is disabled and wherein when a passive state is detected, the first transmitter logic buffer is disabled and the first receiver logic buffer is enabled to receive data.
A method for transmitting a signal in a wireless communication system, the method performed in a user equipment, UE, comprising: receiving, via a physical downlink control channel, PDCCH, downlink control information, DCI, including cyclic shift field; and transmitting, in response to the DCI, each of demodulation reference signals, DMRSs, for a physical uplink shared channel, PUSCH, through a plurality of antennas (390; 490; 590) by cyclic shifting the DMRSs based on different cyclic shift values, wherein one of the different cyclic shift values is determined by the cyclic shift field, and an offset between different cyclic shift values is pre-defined based on the number of the plurality of antennas (390; 490; 590) and the number of available cyclic shift values. receiving, via a physical downlink control channel, PDCCH, downlink control information, DCI, including cyclic shift field; and transmitting, in response to the DCI, each of demodulation reference signals, DMRSs, for a physical uplink shared channel, PUSCH, through a plurality of antennas (390; 490; 590) by cyclic shifting the DMRSs based on different cyclic shift values, wherein one of the different cyclic shift values is determined by the cyclic shift field, and an offset between different cyclic shift values is pre-defined based on the number of the plurality of antennas (390; 490; 590) and the number of available cyclic shift values.
A lithography method in which an electric field generated by a scanning probe and a field emission current, tunnel current or Faraday electron current resulting therefrom is used to generate a fine structuring of a resist layer, wherein a rough structuring of the same resist layer is carried out by means of a beam-based lithography method prior to the fine structuring, with the rough structuring and the fine structuring being generated directly in the same lithography region or in an overlapping manner, and wherein a substrate is coated with the resist in a preparatory step; the coated substrate is treated by means of a mask-based optical lithography or a maskless electron beam lithography or ion beam lithography; a development process is carried out in a further treatment step; and the resist still remaining after the development is locally removed in a subsequent lithography step by means of a closed loop lithography based on the scanning probe.
A method for making a catalyst for the hydrodesulfurisation of naphtha, the method comprising: (i) impregnating a silica support that has a silica content of at least 85 wt.%, based on silica, and has a pore volume between 0.6 cm 3 /g (cc/g) and 2.0 cm 3 /g (cc/g), as determined by mercury intrusion porosimetry, according to the ASTM D4284-03 method and median pore sizes in the range of 150Å to 2000Å, as measured by mercury porosimetry, according to the ASTM D4284-03 method with (a) an aqueous solution of a cobalt salt, (b) an aqueous solution of a molybdenum salt and (c) at least one organic additive, said organic additive comprising at least one compound selected from the group consisting of compounds comprising at least two hydroxyl groups and 2-20 carbon atoms, and the (poly)ethers of these compounds, to form a catalyst precursor; (ii) drying the catalyst precursor at a temperature of less than 350°C to form a dried catalyst precursor; and (iii) optionally sulfiding the dried catalyst precursor, provided that the dried catalyst precursor or catalyst is not calcined prior to sulfiding or use for HDS. (i) impregnating a silica support that has a silica content of at least 85 wt.%, based on silica, and has a pore volume between 0.6 cm 3 /g (cc/g) and 2.0 cm 3 /g (cc/g), as determined by mercury intrusion porosimetry, according to the ASTM D4284-03 method and median pore sizes in the range of 150Å to 2000Å, as measured by mercury porosimetry, according to the ASTM D4284-03 method with (a) an aqueous solution of a cobalt salt, (b) an aqueous solution of a molybdenum salt and (c) at least one organic additive, said organic additive comprising at least one compound selected from the group consisting of compounds comprising at least two hydroxyl groups and 2-20 carbon atoms, and the (poly)ethers of these compounds, to form a catalyst precursor; (ii) drying the catalyst precursor at a temperature of less than 350°C to form a dried catalyst precursor; and (iii) optionally sulfiding the dried catalyst precursor, provided that the dried catalyst precursor or catalyst is not calcined prior to sulfiding or use for HDS.
A belt-shaped rope (1,1') of an elevator having opposite lateral sides (S1, S2) facing in thickness direction (t) of the rope, at least one of the lateral sides (S1, S2) being shaped to have elongated wedge-shaped ribs that are disposed adjacent each other in width direction (w) of the rope (1,1') and extend parallel with the longitudinal direction of the rope (1,1'), each said wedge-shaped rib having a first flank face and a second flank face that are at an acute angle (alfa) relative to each other, characterized in that the acute angle (alfa) is more than 45 degrees and less than 60 degrees, and the surface material of said flank faces (2a, 2b) has Shore A hardness 90 or more and less than 100.
A rectangular swimming pool to be placed on a base, comprising several connecting pieces, several columns as well as several walls (6,7), which connecting pieces are designed to connect the walls (6,7) and the columns together near respective corner points of the swimming pool, characterised in that each connecting piece comprises a first part provided on the inner side of a corner point and a second part provided on the outer side of a corner point, whilst a column is installed between respective end sides of facing walls (6,7) and between said first part and said second part, wherein the first part, which is plate-shaped, engages with its edges in connecting slots of facing walls (6,7) on either side thereof, whilst the second part has a substantially U-shaped cross-section for receiving the column in question between legs (12,13) of said U-shaped cross-section, and wherein the first part, the second part and the column in question are provided with co-axial connecting holes, through which a pin extends for connecting the first part, the second part and the column in question together.
A routing and spectrum assignment, RSA, element configured to provide physical layer impairment, PLI, aware network path selection on a Transport Software-Defined Network, T-SDN, the RSA element configured to: receive a connection request to connect a first node with a second node of the T-SDN; receive Optical Signal-to-Noise Ratio, OSNR, measurements from controllers in communication with links of the T-SDN; receive a network utilization parameter for the T-SDN; identify a set of n network paths that connect the first node with the second node; and, select a network path connecting the first node with the second node based on the received OSNR measurements and the received network utilization parameter, wherein a particular combination of links forms a particular network path, and the RSA element further configured to: rank sorting the set of n network paths based on a linear OSNR value for each path to order the paths from highest OSNR to lowest OSNR; evaluate the set of n network paths to identify a sub-set of q network paths, starting from the network path with the highest OSNR value until the sub-set q includes one network path with no non-linear values; evaluate the sub-set of q network paths to obtain for each the network links, updated linear OSNR and updated non-linear OSNR values; and, assign the network path with the highest combination of updated linear OSNR and updated non-linear OSNR values as the network connection. receive a connection request to connect a first node with a second node of the T-SDN; receive Optical Signal-to-Noise Ratio, OSNR, measurements from controllers in communication with links of the T-SDN; receive a network utilization parameter for the T-SDN; identify a set of n network paths that connect the first node with the second node; and, select a network path connecting the first node with the second node based on the received OSNR measurements and the received network utilization parameter, rank sorting the set of n network paths based on a linear OSNR value for each path to order the paths from highest OSNR to lowest OSNR; evaluate the set of n network paths to identify a sub-set of q network paths, starting from the network path with the highest OSNR value until the sub-set q includes one network path with no non-linear values; evaluate the sub-set of q network paths to obtain for each the network links, updated linear OSNR and updated non-linear OSNR values; and, assign the network path with the highest combination of updated linear OSNR and updated non-linear OSNR values as the network connection.
Method for determining average distributed temperature variation of a few mode optical fibre comprising the steps of: - providing a few mode optical fibre; - enlighting a first end of said few mode optical fibre by means of a coherent light source; - determining an intermodal interference pattern of coherent light at a second end of the optical fibre; characterised in that the method further comprises the steps of: - selecting one maximum of intensity of the intermodal interference pattern at the second end of the optical fibre by spatially mode filtering the enlighting at the first end of the optical fibre; - determining a path length of a trajectory of the selected maximum of intensity of the intermodal interference pattern; - based upon the determined path length of the trajectory of the selected maximum of intensity, determining the average distributed temperature variation of the few mode optical fibre. - providing a few mode optical fibre; - enlighting a first end of said few mode optical fibre by means of a coherent light source; - determining an intermodal interference pattern of coherent light at a second end of the optical fibre; characterised in that the method further comprises the steps of: - selecting one maximum of intensity of the intermodal interference pattern at the second end of the optical fibre by spatially mode filtering the enlighting at the first end of the optical fibre; - determining a path length of a trajectory of the selected maximum of intensity of the intermodal interference pattern; - based upon the determined path length of the trajectory of the selected maximum of intensity, determining the average distributed temperature variation of the few mode optical fibre. - selecting one maximum of intensity of the intermodal interference pattern at the second end of the optical fibre by spatially mode filtering the enlighting at the first end of the optical fibre; - determining a path length of a trajectory of the selected maximum of intensity of the intermodal interference pattern; - based upon the determined path length of the trajectory of the selected maximum of intensity, determining the average distributed temperature variation of the few mode optical fibre.
An optical fiber amplifier, comprising: an optical fiber comprising a gain medium; a polymer layer that at least partially surrounds the optical fiber, wherein the polymer layer is optically transparent, wherein the polymer layer comprises a polymer material and an additional material, and wherein the additional material increases a thermal conductivity of the polymer layer; a pump source configured to optically pump the optical fiber, wherein optical pumping by the pump source amplifies optical signals in a wavelength range transmitted through the gain medium of the optical fiber and generates excess heat and excess photons; a heatsink layer disposed adjacent to the polymer layer, wherein the heatsink layer conducts the excess heat away from the optical fiber; and an optically transparent layer disposed adjacent to the polymer layer opposite the heatsink layer, wherein the optically transparent layer transmits the excess photons away from the optical fiber. an optical fiber comprising a gain medium; a polymer layer that at least partially surrounds the optical fiber, wherein the polymer layer is optically transparent, wherein the polymer layer comprises a polymer material and an additional material, and wherein the additional material increases a thermal conductivity of the polymer layer; wherein the polymer layer is optically transparent, wherein the polymer layer comprises a polymer material and an additional material, and wherein the additional material increases a thermal conductivity of the polymer layer; a pump source configured to optically pump the optical fiber, wherein optical pumping by the pump source amplifies optical signals in a wavelength range transmitted through the gain medium of the optical fiber and generates excess heat and excess photons; a heatsink layer disposed adjacent to the polymer layer, wherein the heatsink layer conducts the excess heat away from the optical fiber; and an optically transparent layer disposed adjacent to the polymer layer opposite the heatsink layer, wherein the optically transparent layer transmits the excess photons away from the optical fiber.
A user equipment, UE, in an image sensor communication system, the UE comprising: a light emitter; a pulse driver coupling to the light emitter; an image sensor; a display device; a transceiver; and a processor coupling to the pulse driver, the image sensor, the transceiver, and the display device, wherein the processor is configured to: control the pulse driver to drive the light emitter to send to a first another UE a first temporal identification data, ID, as a light pulse; control the image sensor to receive a light pulse of a second temporal ID from the first another UE: control the transceiver to transmit a first communication message with the first temporal ID and the second temporal ID of the first another UE to a server in radio band and to receive a second communication message with the second temporal ID of the first another UE from the server in radio band; and compare the second temporal ID from the image sensor and the second temporal ID received by the transceiver and control the display device to show the second communication message corresponding to the second temporal ID in case of matching of the second temporal ID. a light emitter; a pulse driver coupling to the light emitter; an image sensor; a display device; a transceiver; and a processor coupling to the pulse driver, the image sensor, the transceiver, and the display device, wherein the processor is configured to: control the pulse driver to drive the light emitter to send to a first another UE a first temporal identification data, ID, as a light pulse; control the image sensor to receive a light pulse of a second temporal ID from the first another UE: control the transceiver to transmit a first communication message with the first temporal ID and the second temporal ID of the first another UE to a server in radio band and to receive a second communication message with the second temporal ID of the first another UE from the server in radio band; and compare the second temporal ID from the image sensor and the second temporal ID received by the transceiver and control the display device to show the second communication message corresponding to the second temporal ID in case of matching of the second temporal ID. control the pulse driver to drive the light emitter to send to a first another UE a first temporal identification data, ID, as a light pulse; control the image sensor to receive a light pulse of a second temporal ID from the first another UE: control the transceiver to transmit a first communication message with the first temporal ID and the second temporal ID of the first another UE to a server in radio band and to receive a second communication message with the second temporal ID of the first another UE from the server in radio band; and compare the second temporal ID from the image sensor and the second temporal ID received by the transceiver and control the display device to show the second communication message corresponding to the second temporal ID in case of matching of the second temporal ID.
A thin panel conveyance unit used for piling up and conveying a plurality of rectangular thin panels, comprising: resin cushion spacers inserted between the rectangular thin panels, each resin cushion spacer having a load-receiving upper surface configured to receive load of the rectangular thin panel disposed above and a placement lower surface configured to be placed on an upper surface of the rectangular thin panel disposed below, and having an end part provided with a positioning body for the resin cushion spacer; wherein the positioning bodies of the resin cushion spacers vertically adjacent to each other via the rectangular thin panel have a portion where mutual engagement is possible, the portion comprising a protrusion and a recess that are mutually engaged, and wherein a predetermined clearance is provided between an upper surface of the positioning body of the lower resin cushion spacer and a lower surface of the positioning body of the upper resin cushion spacer; a pallet having an upper surface configured to allow the rectangular thin panels to be piled up thereon; and a protection sleeve configured to surround the piled rectangular thin panels, wherein the upper surface of the pallet is provided with a peripheral groove in which the protection sleeve can be fitted. resin cushion spacers inserted between the rectangular thin panels, each resin cushion spacer having a load-receiving upper surface configured to receive load of the rectangular thin panel disposed above and a placement lower surface configured to be placed on an upper surface of the rectangular thin panel disposed below, and having an end part provided with a positioning body for the resin cushion spacer; wherein the positioning bodies of the resin cushion spacers vertically adjacent to each other via the rectangular thin panel have a portion where mutual engagement is possible, the portion comprising a protrusion and a recess that are mutually engaged, and wherein a predetermined clearance is provided between an upper surface of the positioning body of the lower resin cushion spacer and a lower surface of the positioning body of the upper resin cushion spacer; a pallet having an upper surface configured to allow the rectangular thin panels to be piled up thereon; and a protection sleeve configured to surround the piled rectangular thin panels, wherein the upper surface of the pallet is provided with a peripheral groove in which the protection sleeve can be fitted.
A polymeric oil or gas wellbore cement comprising the reaction product of an aliphatic isocyanate, a trimerization catalyst, and a catalyst retarder, wherein the reaction occurs in the wellbore at a temperature of at least 250°F (121°C), wherein the aliphatic isocyanate is a polyisocyanate.
A method, characterized in that the method comprises: selecting a bit mask associated with an antenna configuration and a transmission diversity scheme, the bit mask being selected from a set of bit masks, the set of bit masks including a first bit mask associated with a single antenna configuration, a second bit mask associated with a two antenna configuration, and a third bit mask associated with a four antenna configuration, wherein a hamming distance between the first bit mask and the second bit mask is larger than the hamming distance between the first bit mask and the third bit mask and also larger than the hamming distance between the second bit mask and the third bit mask; wherein the method further comprises: applying the bit mask associated with the antenna configuration and the transmission diversity scheme to cyclic redundancy check bits.
A polyurethane-free aqueous primer coating for print substrates comprising a. a dispersion of an at least partially neutralized copolymer of ethylene and (meth)acrylic acid, b. a dispersion of an at least partially neutralized copolymer that is obtainable by emulsion copolymerization of at least methyl (meth)acrylate and one or more alkenyl phosphate esters, and further optionally one or more comonomers chosen from (meth)acrylic acid and diacetone (meth)acrylamide. a. a dispersion of an at least partially neutralized copolymer of ethylene and (meth)acrylic acid, b. a dispersion of an at least partially neutralized copolymer that is obtainable by emulsion copolymerization of at least methyl (meth)acrylate and one or more alkenyl phosphate esters, and further optionally one or more comonomers chosen from (meth)acrylic acid and diacetone (meth)acrylamide.
A composite material comprising cellulose, chitin, chitosan, and/or keratin, and a nitric oxide binding/releasing agent, wherein the composite material is obtainable by a method comprising removing an ionic liquid from an ionic liquid composition comprising: (a) cellulose, chitin, chitosan, and/or keratin dissolved in an ionic liquid; and (b) a nitric oxide binding/releasing agent dissolved in the ionic liquid, wherein the nitric oxide binding/releasing agent is a photoreactive metal complex which complex binds nitric oxide and releases nitric oxide when irradiated with near-infrared light having a wavelength between 600-900 nm.