mhurhangee/ep-ind-claims huggingface dataset:
Single-stranded RNA molecule having a length from 14-50 nucleotides wherein at least the 14-20 5' most nucleotides are substantially complementary to a target transcript for use in therapy, wherein the RNA molecule has a phosphate analog at the 5'-terminus which is selected from 5'-diphosphate, 5'-triphosphate, 7-methylated or non-methylated 5'-guanosine cap, 5'-adenosine cap, any modified or unmodified nucleotide cap structure N-O-5'- P-O- P-OP -O-5', 5'-monothiophosphate, 5'-monodithiophosphate, 5'-phosphorothiolate, any additional combination of oxgen/sulfur replaced monophosphate, diphosphate and triphosphates, 5'-phosphoramidates, 5'-alkylphosphonates and 5'-alkyletherphosphonates, wherein the single-stranded RNA molecule is capable of inhibiting the expression of target transcripts by RNA interference.
A nitric acid production process, comprising a step of catalytic oxidation of ammonia, producing a process gas comprising nitrogen oxides NOx and N2O, and a step of absorption of said process gas with water, producing a product stream containing nitric acid, and a stream of a tail gas containing NOx and N2O, wherein the content of NOx and N2O of said gas stream is reduced by the steps of: passing said gas stream, without any previous stage of removal of NOx, over a deN2O first stage comprising an iron-loaded zeolite catalyst for decomposition of N2O, obtaining an effluent gas stream with a reduced content of N2O, passing said effluent of the deN2O stage over a deNOx second stage comprising a V2O5-TiO2 catalyst, in the presence of gaseous ammonia as a reducing agent, characterized in that: a) the N2O and NOx containing gas streams at the inlet of said first stage and at the inlet of said second stage have a temperature greater than 400 °C, and at least one of the following conditions is met: b1) the N2O and NOx containing gas stream before admission into the first stage has a NOx molar content of less than 1000 ppm; b2) the N2O and NOx containing gas stream before admission into the first stage has O2 molar content of less than 4%; b3) the molar ratio of ammonia over NOx at the inlet of the second stage is 0.9 to 1.1. passing said gas stream, without any previous stage of removal of NOx, over a deN2O first stage comprising an iron-loaded zeolite catalyst for decomposition of N2O, obtaining an effluent gas stream with a reduced content of N2O, passing said effluent of the deN2O stage over a deNOx second stage comprising a V2O5-TiO2 catalyst, in the presence of gaseous ammonia as a reducing agent, characterized in that: a) the N2O and NOx containing gas streams at the inlet of said first stage and at the inlet of said second stage have a temperature greater than 400 °C, and a) the N2O and NOx containing gas streams at the inlet of said first stage and at the inlet of said second stage have a temperature greater than 400 °C, and at least one of the following conditions is met: b1) the N2O and NOx containing gas stream before admission into the first stage has a NOx molar content of less than 1000 ppm; b2) the N2O and NOx containing gas stream before admission into the first stage has O2 molar content of less than 4%; b3) the molar ratio of ammonia over NOx at the inlet of the second stage is 0.9 to 1.1. b1) the N2O and NOx containing gas stream before admission into the first stage has a NOx molar content of less than 1000 ppm; b2) the N2O and NOx containing gas stream before admission into the first stage has O2 molar content of less than 4%; b3) the molar ratio of ammonia over NOx at the inlet of the second stage is 0.9 to 1.1.
A method for initializing a spatial web of trust for a sensor platform array, the method comprising: arranging the sensor platform array in multiple sensor groups (G1, G2) within a restricted workspace (18, 118), such that sensor platform pairs are formed within a close-field range from adjacent corresponding sensor platforms of the multiple sensor groups (G1, G2); exchanging, for each sensor platform pair, sensor-specific identification keys between the sensor platforms of the sensor platform pair using respective transceivers of the sensor platforms; progressively repositioning the multiple sensor groups (G1, G2) to form unique sensor platform pairs within the close-field range; and in response to the repositioning, progressively exchanging, for each sensor platform pair, the sensor-specific identification keys between the sensor platforms of the sensor platform pair, until each sensor platform of the sensor platform array has exchanged a respective one of the sensor-specific identification keys with every other sensor platform in the sensor platform array, thereby initializing the spatial web of trust. arranging the sensor platform array in multiple sensor groups (G1, G2) within a restricted workspace (18, 118), such that sensor platform pairs are formed within a close-field range from adjacent corresponding sensor platforms of the multiple sensor groups (G1, G2); exchanging, for each sensor platform pair, sensor-specific identification keys between the sensor platforms of the sensor platform pair using respective transceivers of the sensor platforms; progressively repositioning the multiple sensor groups (G1, G2) to form unique sensor platform pairs within the close-field range; and in response to the repositioning, progressively exchanging, for each sensor platform pair, the sensor-specific identification keys between the sensor platforms of the sensor platform pair, until each sensor platform of the sensor platform array has exchanged a respective one of the sensor-specific identification keys with every other sensor platform in the sensor platform array, thereby initializing the spatial web of trust.
A video conference system comprising: a proximity detector configured to detect the presence of a plurality of mobile devices within a predetermined proximity of the proximity detector; a wireless controller configured to establish a wireless link with each mobile device in response to the proximity detector detecting the presence of the mobile device; wherein the proximity detector comprises a nearfield communication, NFC, device configured to provide pairing credentials to the mobile device for establishing the wireless link in response to the mobile device being proximate to the NFC device; a control unit configured to: automatically add a plurality of users associated with the plurality of mobile devices detected within the predetermined proximity of the proximity detector as participants to a scheduled video conference; and responsive to receiving a command from any one of the plurality of mobile devices detected within the predetermined proximity of the proximity detector via the wireless link: control a video conference setting based on the received command. a proximity detector configured to detect the presence of a plurality of mobile devices within a predetermined proximity of the proximity detector; a wireless controller configured to establish a wireless link with each mobile device in response to the proximity detector detecting the presence of the mobile device; wherein the proximity detector comprises a nearfield communication, NFC, device configured to provide pairing credentials to the mobile device for establishing the wireless link in response to the mobile device being proximate to the NFC device; a control unit configured to: automatically add a plurality of users associated with the plurality of mobile devices detected within the predetermined proximity of the proximity detector as participants to a scheduled video conference; and responsive to receiving a command from any one of the plurality of mobile devices detected within the predetermined proximity of the proximity detector via the wireless link: control a video conference setting based on the received command. automatically add a plurality of users associated with the plurality of mobile devices detected within the predetermined proximity of the proximity detector as participants to a scheduled video conference; and responsive to receiving a command from any one of the plurality of mobile devices detected within the predetermined proximity of the proximity detector via the wireless link: control a video conference setting based on the received command.
A laminated body (1; 201) comprising: a base material; a print layer laminated above the base material; a barrier layer laminated above the print layer and having translucency; and a laser color development layer laminated above the barrier layer and having translucency, wherein the barrier layer is configured to suppress damage to the print layer due to heat generated in the laser color development layer by laser irradiation, characterized in that, the barrier layer has an optical diffraction structure. a base material; a print layer laminated above the base material; a barrier layer laminated above the print layer and having translucency; and a laser color development layer laminated above the barrier layer and having translucency, wherein the barrier layer is configured to suppress damage to the print layer due to heat generated in the laser color development layer by laser irradiation, characterized in that, the barrier layer has an optical diffraction structure.
A sensor comprising: a first substrate; a second substrate positioned relative to the first substrate; a first electrode located between the first substrate and the second substrate, the first electrode formed on the second substrate; a sensing portion covering at least a part of the first electrode and further covering at least a portion of the second substrate; a pad electrode (112; 114) located between the first substrate and the second substrate, wherein the pad electrode (112; 114) is formed on the second substrate and is electrically coupled to the first electrode; and a bonding pad (134; 135) located between the first substrate and the second substrate, wherein the bonding pad is formed on the first substrate and is electrically coupled to the pad electrode (112; 114), characterized in that the bonding pad (134; 135) partially faces a side surface of the second substrate. a first substrate; a second substrate positioned relative to the first substrate; a first electrode located between the first substrate and the second substrate, the first electrode formed on the second substrate; a sensing portion covering at least a part of the first electrode and further covering at least a portion of the second substrate; a pad electrode (112; 114) located between the first substrate and the second substrate, wherein the pad electrode (112; 114) is formed on the second substrate and is electrically coupled to the first electrode; and a bonding pad (134; 135) located between the first substrate and the second substrate, wherein the bonding pad is formed on the first substrate and is electrically coupled to the pad electrode (112; 114), characterized in that the bonding pad (134; 135) partially faces a side surface of the second substrate.
A data communications apparatus for a vehicle, the apparatus comprising a plurality of platform applications (14, 16, 18, 20), a communications system, and a data management module (54A, 54B), the communications system being configured to cause data from each said platform application to be transmitted, via wireless data communication, to at least one recipient node via a respective one or more allocated or associated communication links of a plurality of supported communications links, said data management module being configured to: - receive performance data indicative of a current available bandwidth of each communications link allocated to or associated with said platform applications; - for each said platform application, identify data to be transmitted thereby to a recipient node, and compare a bandwidth requirement of data to be transmitted with the current available bandwidth of the respective communications link allocated thereto or associated therewith; and - in the event that, as a result of said comparing, the current available bandwidth of the respective communications link is determined to be insufficient in relation to the bandwidth requirement of one of its associated platform applications, generate information data and transmit said information data to the platform application, or a quality of service interface associated therewith; wherein each said platform application, or a quality of service interface associated therewith, is configured, upon receipt of said information data, to adapt at least one parameter of its respective application data to said current available bandwidth of its respective communications link for transmission to a recipient node. - receive performance data indicative of a current available bandwidth of each communications link allocated to or associated with said platform applications; - for each said platform application, identify data to be transmitted thereby to a recipient node, and compare a bandwidth requirement of data to be transmitted with the current available bandwidth of the respective communications link allocated thereto or associated therewith; and - in the event that, as a result of said comparing, the current available bandwidth of the respective communications link is determined to be insufficient in relation to the bandwidth requirement of one of its associated platform applications, generate information data and transmit said information data to the platform application, or a quality of service interface associated therewith;
Apparatus for lengthening the vibrating length of strings on a harp, which apparatus comprises: (i) securing means for securing one end of the strings; (ii) adjuster members for increasing the length of the strings in order to increase the tension in the strings and thereby alter the frequency of vibration of the strings; (iii) a rod member; and (iv) mounting means for mounting the apparatus on the harp, and characterised in that: (v) the adjuster members are lever members; (vi) there is one of the lever members for each one of the strings; (vii) the securing means comprises a plurality of finger members, in which there is one of the finger members for each one of the strings of the harp, and in which each finger member is operated by one of the lever members; (viii) the lever members have a cam portion which operates the securing means; (ix) the lever members have a receiving slot for receiving the rod member; (x) the lever members being pivotably mounted on a rod member; and whereby: (xi) the lever members are pivotable adjuster members which are pivotable between a string non-lengthening position and a string lengthening position; (xii) the lever members act on the securing means in order to increase the length of the string. (i) securing means for securing one end of the strings; (ii) adjuster members for increasing the length of the strings in order to increase the tension in the strings and thereby alter the frequency of vibration of the strings; (iii) a rod member; and (iv) mounting means for mounting the apparatus on the harp, and characterised in that: (v) the adjuster members are lever members; (vi) there is one of the lever members for each one of the strings; (vii) the securing means comprises a plurality of finger members, in which there is one of the finger members for each one of the strings of the harp, and in which each finger member is operated by one of the lever members; (viii) the lever members have a cam portion which operates the securing means; (ix) the lever members have a receiving slot for receiving the rod member; (x) the lever members being pivotably mounted on a rod member; and whereby: (xi) the lever members are pivotable adjuster members which are pivotable between a string non-lengthening position and a string lengthening position; (xii) the lever members act on the securing means in order to increase the length of the string.
Method for the targeted influencing of the deformation behaviour of the material of a backrest structure and a seat part structure, which are connected in an inclination-adjustable manner to form a vehicle seat structure by means of a backrest adjuster (16, 18) having fitting parts (16; 16A, 16B; 18; 18A, 18B), characterized in that • the material, at points in which no components are connected to one another, is heated in at least one flat region (Bn; Bn.m) of the vehicle seat structure and/or the backrest adjuster (16, 18) linearly by means of a laser light source forming a line pattern comprising at least one line, and • a) is partially fused in a part of the existing thickness of the material, or b) is completely fused over the entire thickness of the material, and is cooled by self-quenching and converted into a harder structural shape, • wherein the laser light source is used to produce at least one strengthening structure (Vn) which, in the material of the respective structure (12, 14) and/or the backrest adjuster (16, 18), in the flat region (Bn; Bn.m) traversed by the line pattern, constitutes a linear flow obstruction where higher energy is absorbed, • as a result of which the vehicle seat structure has increased strength structurally in the at least one region (Bn; Bn.m) laser-strength and by the strengthening structure (Vn). • the material, at points in which no components are connected to one another, is heated in at least one flat region (Bn; Bn.m) of the vehicle seat structure and/or the backrest adjuster (16, 18) linearly by means of a laser light source forming a line pattern comprising at least one line, and • a) is partially fused in a part of the existing thickness of the material, or b) is completely fused over the entire thickness of the material, and is cooled by self-quenching and converted into a harder structural shape, • wherein the laser light source is used to produce at least one strengthening structure (Vn) which, in the material of the respective structure (12, 14) and/or the backrest adjuster (16, 18), in the flat region (Bn; Bn.m) traversed by the line pattern, constitutes a linear flow obstruction where higher energy is absorbed, • as a result of which the vehicle seat structure has increased strength structurally in the at least one region (Bn; Bn.m) laser-strength and by the strengthening structure (Vn).
An impregnation station comprising two parallel plates located close to each other and defining a non-encapsulated resin bath (28") between them, the plates and thereby the resin bath (28") extending between a low pressure space and an ambient pressure space, the impregnation station further comprising a liner accommodated between the plates and the distance between the plates being approximately equal to the thickness of the liner, the liner being conveyable through the resin bath (28") between the plates from the low pressure space to the ambient pressure space, each plate comprising a set of nozzles (32") connected to a pipe system (38") and a pump 36" for: propelling the resin from a resin reservoir via the nozzles (32") towards the liner, thereby subjecting the liner to a pressurized resin jet from both sides, filling the resin bath (28") with resin by continuous flow of resin acting as a liquid pressure seal between the low pressure space and the ambient pressure space, and causing a large amount of resin to penetrate deep into the liner and fill all the cavities of the liner with resin due to the pressure of the resin, whereas some resin will not enter the liner but exit the resin bath (28") outside the liner as excess resin and due to the pressure and the viscosity of the resin propagate slowly outside the resin bath (28") towards the low pressure space and in the opposite direction towards the ambient pressure space. propelling the resin from a resin reservoir via the nozzles (32") towards the liner, thereby subjecting the liner to a pressurized resin jet from both sides, filling the resin bath (28") with resin by continuous flow of resin acting as a liquid pressure seal between the low pressure space and the ambient pressure space, and causing a large amount of resin to penetrate deep into the liner and fill all the cavities of the liner with resin due to the pressure of the resin, whereas some resin will not enter the liner but exit the resin bath (28") outside the liner as excess resin and due to the pressure and the viscosity of the resin propagate slowly outside the resin bath (28") towards the low pressure space and in the opposite direction towards the ambient pressure space.
A method for soil mapping of a managed agricultural area, wherein initially, an initial state for a soil property (1, 2, 3) is determined and then, starting from the initial state, an actual state of the soil property (1, 2, 3) is calculated with the aid of an effect of a management action for the area, characterized in that the initial state is determined and the actual state is calculated in a plurality of vertically superimposed horizontal zones of the area.
A pneumatic tire comprising a tread portion having an outboard tread edge (To) and inboard tread edge (Ti) to be positioned toward the outside and inside of a vehicle, respectively, wherein the tread portion from the outboard tread edge (To) to the inboard tread edge (Ti) is divided into five land portions, which are an outboard shoulder land portion, an outboard middle land portion, a center land portion, an inboard middle land portion, and an inboard shoulder land portion, by four circumferentially continuously extending main grooves, which are an outboard shoulder main groove, an outboard crown main groove, an inboard crown main groove, and an inboard shoulder main groove, the inboard middle land portion is provided with inboard middle axial grooves extending from the inboard shoulder main groove to the inboard crown main groove and inclined at an angle (θ1) of from 20 to 30 degrees with respect to the tire axial direction, the outboard middle land portion is provided with outboard middle semi-blind grooves extending axially inwardly from the outboard shoulder main groove and terminating within the outboard middle land portion, and outboard middle sipes respectively extending from the axially inner ends of the outboard middle semi-blind grooves to the outboard crown main groove, the outboard middle semi-blind grooves and the outboard middle sipes are inclined at an angle (θ3, θ4) of 20 to 30 degrees with respect to the tire axial direction, the inboard middle land portion is circumferentially divided by the inboard middle axial grooves into a row of inboard middle blocks, characterized in that the center land portion is provided with inboard crown semi-blind grooves extending from the inboard crown main groove toward the outboard crown main groove and terminating within the center land portion, and outboard crown semi-blind grooves extending from the outboard crown main groove toward the inboard crown main groove and terminating within the center land portion, each of the inboard middle blocks is provided with an inboard middle sipe extending from the inboard crown main groove toward the inboard shoulder main groove and terminating within the inboard middle block.
A device for automatically switching off or switching an electrical consumer, the device having an electronic actuating element and a control unit connected in series with a load line of the electrical consumer and which evaluates a current i(t) flowing via the load line by means of a trigger characteristic and controls the electronic actuating element, and in particular switches off the electrical consumer, the consumer being able to be connected to the device with at least two poles, preferably all poles, and the device having a contact element (16, 18) by means of which the device can be electrically connected to a pole of a DC supply line or to a phase of an AC supply line, characterised in that the contact element (16, 18) is mounted moveably within the device and, as a result of the movement, deforms spring elastically, and so can be connected electrically to the supply line.