mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for steaming associated foods such as vegetables, eggs and fish, the apparatus comprising a base portion configured to hold and heat water to produce steam, and a steaming lid assembly configured to be disposed on top of the base portion so as to receive steam, wherein the steaming lid assembly is generally symmetrical side to side, characterized in that the steaming lid assembly includes identical stacking sidewalls (6108, 6110) which are configured to be directly placed one above the other, wherein each stacking sidewall (6108, 6110) has latch members (6132, 6134, 6136) and engagement slots (6138, 6140, 6142), and identical food support shelves (6112, 6114) which are configured to be removably contained and supported within the stacking sidewalls (6108, 6110), wherein the base portion is configured to optionally heat oil to deep fry associated various foods.
A method of characterising a target RNA polynucleotide comprising: a) providing (i) an RNA polynucleotide wherein the RNA polynucleotide is modified to comprise a DNA leader sequence comprising a binding site for a DNA helicase and (ii) a DNA helicase enzyme; b) contacting the RNA polynucleotide and DNA helicase enzyme provided in a) with a transmembrane pore such that the DNA helicase controls the movement of the RNA polynucleotide through the transmembrane pore; c) taking one or more measurements as the RNA polynucleotide moves with respect to the transmembrane pore, wherein the measurements are indicative of one or more characteristics of the RNA polynucleotide, and thereby characterising the target RNA polynucleotide. a) providing (i) an RNA polynucleotide wherein the RNA polynucleotide is modified to comprise a DNA leader sequence comprising a binding site for a DNA helicase and (ii) a DNA helicase enzyme; b) contacting the RNA polynucleotide and DNA helicase enzyme provided in a) with a transmembrane pore such that the DNA helicase controls the movement of the RNA polynucleotide through the transmembrane pore; c) taking one or more measurements as the RNA polynucleotide moves with respect to the transmembrane pore, wherein the measurements are indicative of one or more characteristics of the RNA polynucleotide, and thereby characterising the target RNA polynucleotide.
Polypeptide, characterized in that it comprises a polypeptide chosen from the following polypeptides: - the polypeptide of SEQ ID No. 2, - the polypeptide whose sequence is between position 28 and position 400 of SEQ ID No. 2, - a fragment of the polypeptide of SEQ ID No. 2 having an α-L-arabinofuranosidase B activity, - a polypeptide having an α-L-arabinofuranosidase B activity and exhibiting at least 80% identity with the polypeptide of SEQ ID No. 2. - the polypeptide of SEQ ID No. 2, - the polypeptide whose sequence is between position 28 and position 400 of SEQ ID No. 2, - a fragment of the polypeptide of SEQ ID No. 2 having an α-L-arabinofuranosidase B activity, - a polypeptide having an α-L-arabinofuranosidase B activity and exhibiting at least 80% identity with the polypeptide of SEQ ID No. 2.
A sliding board, in particular a ski, comprising a front part, a middle part and a rear part with a contact surface comprising a running surface and metal edges bordering it, wherein the contact surface of the non-loaded sliding board has a curvature development which, starting from a central contact line in the middle part which has a horizontal tangent, in each case has a positive curvature without turning points toward the front part and rear part, characterized in that the upper side of the sliding board disposed opposite the contact surface is made flat in the middle part and is in each case curved at least toward the ends in the front part and rear part.
A method of operating an electrical power system comprising a first electrical generator (11, 31), a voltage controller, a second electrical generator (12, 32), a current controller and a common electrical distribution arrangement (15, 33), the first electrical generator (11, 31) and the second electrical generator (12, 32) being coupled to the common electrical distribution arrangement (15, 33), the method comprising regulating electrical voltage upon the common electrical distribution arrangement (15, 33) using the first electrical generator (11, 31) and the voltage controller, providing electrical current using the second electrical generator (12, 32) and the current controller, characterised by providing an actuator signal to the current controller to alter the electrical current provided by the second electrical generator (12, 32), the actuator signal providing an indication of status of an electrical load (18, 34, 35, 36) upon the common electrical distribution arrangement (15, 33), providing the necessary electrical current for dynamic response to switching of the electrical loads (35, 36) by adjustment of the speed of the second electrical generator (12,32).
Method for predicting a failure of at least one sensor (10, 12), especially, for measuring at least one parameter of a mobile unit, characterised in that the method comprises at least the following steps: - providing as input data for a machine learning system discrete conditional information of the at least one sensor (10, 12) at several time points (t1, t2), wherein the at least one sensor (10, 12) is a sensor selected out of the group consisting of: a radar sensor (10, 12) and a laser measurement device; wherein the discrete conditional information refers to a signal strength of the at least one sensor (10, 12), wherein these time points (t1, t2) are such time points at which the discrete conditional information of the at least one sensor (10, 12) has changed and - evaluating the input data by using the machine learning system and thus predicting the failure of the at least one sensor (10, 12) by using the machine learning system. - providing as input data for a machine learning system discrete conditional information of the at least one sensor (10, 12) at several time points (t1, t2), wherein the at least one sensor (10, 12) is a sensor selected out of the group consisting of: a radar sensor (10, 12) and a laser measurement device; wherein the discrete conditional information refers to a signal strength of the at least one sensor (10, 12), wherein these time points (t1, t2) are such time points at which the discrete conditional information of the at least one sensor (10, 12) has changed and - evaluating the input data by using the machine learning system and thus predicting the failure of the at least one sensor (10, 12) by using the machine learning system.
A method for controlling an artificial iris, said method comprising: receiving a measurement of light intensity detected by a sensor on or adjacent to the artificial iris; accessing a user-specific profile based on user calibration for determining one or more user-specific thresholds of light intensity of the user-specific profile, wherein the one or more user-specific thresholds are associated with light intensities for triggering a change of light transmittance through the artificial iris; receiving input for selecting one of a plurality of stored user-specific profiles to be active, each user-specific profile being associated with a same user, wherein said accessing comprises accessing the user-specific profile selected to be active; comparing the received measurement of light intensity to the one or more thresholds in the active user-specific profile; and determining, based on said comparing, whether to turn on or turn off one or more concentric rings of liquid crystals of the artificial iris for controlling an amount of light transmitted through the artificial iris. receiving a measurement of light intensity detected by a sensor on or adjacent to the artificial iris; accessing a user-specific profile based on user calibration for determining one or more user-specific thresholds of light intensity of the user-specific profile, wherein the one or more user-specific thresholds are associated with light intensities for triggering a change of light transmittance through the artificial iris; receiving input for selecting one of a plurality of stored user-specific profiles to be active, each user-specific profile being associated with a same user, wherein said accessing comprises accessing the user-specific profile selected to be active; comparing the received measurement of light intensity to the one or more thresholds in the active user-specific profile; and determining, based on said comparing, whether to turn on or turn off one or more concentric rings of liquid crystals of the artificial iris for controlling an amount of light transmitted through the artificial iris.
A mobile device comprising: a memory operable to store control information; and a processor communicatively coupled to the memory and operable to: determine that a radio operation should be performed, wherein the radio operation is expected to cause the mobile device to fail to receive packets from the network; determine, based at least in part upon the control information, an indication of an expected packet loss rate, wherein the expected packet loss rate is a packet loss rate that is expected to occur if the radio operation is performed; and communicate the indication of the expected packet loss rate to a network node; receive, in response to communicating the indication of the expected packet loss rate, information about a procedure for performing the radio operation; and perform the radio operation according to the procedure. a memory operable to store control information; and a processor communicatively coupled to the memory and operable to: determine that a radio operation should be performed, wherein the radio operation is expected to cause the mobile device to fail to receive packets from the network; determine, based at least in part upon the control information, an indication of an expected packet loss rate, wherein the expected packet loss rate is a packet loss rate that is expected to occur if the radio operation is performed; and determine that a radio operation should be performed, wherein the radio operation is expected to cause the mobile device to fail to receive packets from the network; determine, based at least in part upon the control information, an indication of an expected packet loss rate, wherein the expected packet loss rate is a packet loss rate that is expected to occur if the radio operation is performed; and communicate the indication of the expected packet loss rate to a network node; receive, in response to communicating the indication of the expected packet loss rate, information about a procedure for performing the radio operation; and perform the radio operation according to the procedure. receive, in response to communicating the indication of the expected packet loss rate, information about a procedure for performing the radio operation; and perform the radio operation according to the procedure.
Carrier core particles for electrophotographic developer including iron and strontium as a core composition, comprising: 0<y≤5000 ppm, where y denotes the content of the strontium in the carrier core particles; a mean particle diameter ranging from 20 μm to 30 μm; a BET specific surface area ranging from 0.15 m 2 /g to 0.25 m 2 /g; and a pore volume obtained by mercury porosimetry ranging from 0.003 ml/g to 0.023 ml/g. 0<y≤5000 ppm, where y denotes the content of the strontium in the carrier core particles; a mean particle diameter ranging from 20 μm to 30 μm; a BET specific surface area ranging from 0.15 m 2 /g to 0.25 m 2 /g; and a pore volume obtained by mercury porosimetry ranging from 0.003 ml/g to 0.023 ml/g.
A water vehicle, comprising: a deck sufficiently sized to accommodate a plurality of passengers; a hull arranged to support a portion of the deck above a waterline; and an observation gondola extending below the waterline and secured relative to the deck when configured in an underwater observation mode, characterized in that the observation gondola comprises: a transparent floor; seating to accommodate the plurality of passengers seated above the transparent floor; a top portion including an open area above the seating, whereas the open area overlaps at least 50% of the seating extending through the deck above the gondola and exposed to the atmosphere; and a plurality of transparent walls, each wall of the plurality of transparent walls extending between the floor and the top portion, wherein the floor, the top portion and the plurality of transparent walls collectively define an interior region sufficiently sized to accommodate the plurality of passengers below the waterline. a deck sufficiently sized to accommodate a plurality of passengers; a hull arranged to support a portion of the deck above a waterline; and an observation gondola extending below the waterline and secured relative to the deck when configured in an underwater observation mode, characterized in that the observation gondola comprises: a transparent floor; seating to accommodate the plurality of passengers seated above the transparent floor; a top portion including an open area above the seating, whereas the open area overlaps at least 50% of the seating extending through the deck above the gondola and exposed to the atmosphere; and a plurality of transparent walls, each wall of the plurality of transparent walls extending between the floor and the top portion, wherein the floor, the top portion and the plurality of transparent walls collectively define an interior region sufficiently sized to accommodate the plurality of passengers below the waterline.
A method for coupling an input beam incoming from a photonic device of a second optical element to a primary photonic chip at an input interface (5, 31) of the primary photonic chip, the primary photonic chip comprising a coupling apparatus, wherein the coupling apparatus comprises a multi-mode section and an ensemble of more than one singulated single mode optical paths on the primary photonic chip, wherein the light from the input beam is coupled to the multi-mode section, so that the light can be sent onto the cross section of the single mode optical paths and collected from said cross section, characterized in that the multi-mode section can correspond to one or both of distinct but highly coupled waveguides or a multi-mode slab waveguide, the multi-mode section converts a misalignment of the input beam into a beam profile with an intensity distribution that is substantially independent of said misalignment by converting the misalignment into a slowly varying phase front distortion of said beam profile, and the coupling is performed in a way that the power coupled to each of the single mode optical paths (11, 19) is substantially equal.
A liquid dishwashing detergent comprising (a) a protease comprising an amino acid sequence having at least 71%, 72%, 73%, 74%, 75%, 76%, 77%, 78%, 79%, 80%, 81%, 82%, 83%, 84%, 85%, 86%, 87%, 88%, 89%, 90%, 90.5%, 91%, 91.5%, 92%, 92.5%, 93%, 93.5%, 94%, 94.5%, 95%, 95.5%, 96%, 96.5%, 97%, 97.5%, 98% and 98.5% identity over its total length with the amino acid sequence specified in SEQ ID NO. 1 and having, in the listing according to SEQ ID NO. 1, the L211D amino acid substitution in combination with the S3T, V4I, V193M and V199I amino acid substitutions, and (b) an amylase. (a) a protease comprising an amino acid sequence having at least 71%, 72%, 73%, 74%, 75%, 76%, 77%, 78%, 79%, 80%, 81%, 82%, 83%, 84%, 85%, 86%, 87%, 88%, 89%, 90%, 90.5%, 91%, 91.5%, 92%, 92.5%, 93%, 93.5%, 94%, 94.5%, 95%, 95.5%, 96%, 96.5%, 97%, 97.5%, 98% and 98.5% identity over its total length with the amino acid sequence specified in SEQ ID NO. 1 and having, in the listing according to SEQ ID NO. 1, the L211D amino acid substitution in combination with the S3T, V4I, V193M and V199I amino acid substitutions, and (b) an amylase.
A rear portion of the body of a motor vehicle comprising a part made of stamped sheet metal constituting a housing for one of the two rear lights, situated in the proximity of the lining of one of the two rear wings, to the quarter panel lining and to one of the two rear wheel arches, said sheet metal part of the rear light housing including a wall situated substantially in a horizontal plane which comprises an edge which is fixed to a rigid portion of the body situated substantially in a vertical plane, characterized in that said wall of the rear light housing is supported by a sheet metal part forming a spacer, the lower edge of which is fixed to one of the wheel arches and the upper edge of which is fixed beneath said wall of the light housing.
Fastening system for overhead bins that can be mounted on a support structure in a suspended manner, comprising at least one pair of lifting lugs (20, 22) which are attachable to the support structure or to one of the overhead bins, comprising a main bolt for detachably interconnecting the lifting lugs (20, 22), and receptacles (30, 32), for the main bolt, which are attached to the lifting lugs (20, 22) and align with each other when the overhead bin is mounted, part of a first lifting lug being formed as an inclined ramp, a main bolt guide being attached in the receptacle of a second lifting lug, the main bolt being biased by means of a spring in the main bolt guide towards the first lifting lug and, when the overhead bin is not yet mounted, assuming an end position in which the main bolt is extended out of the main bolt guide and, due to the part of the first lifting lug formed as an inclined ramp, the main bolt being extendable from the lifting lug of the overhead bin into the receptacle of the first lifting lug as a result of the spring bias as said bin moves upwards, the receptacle of the first lifting lug comprising a stop with which the main bolt can be brought into contact, as a result of the spring bias, as said bolt extends, and the main bolt being lockable to the stop in a positive-fit manner by means of manual activation, characterised in that the stop is a pin arranged in the centre of the receptacle of the first lifting lug and the main bolt has a complementary hole in which the pin can be received.
A bearing assembly comprising: a wearing surface formed from an alloy including tin; a wear material configured to be contacted by the wearing surface during use, the wear material having a smoothed surface; and a lubricant composition comprising one or more additives having an affinity for tin; and wherein the wear material has a smoothed surface having a measured root mean squared surface roughness (Rq) less than 0.0762 micrometres (μm) (3 microinches (μin)) to about 0, and/or a maximum surface roughness (Rmax) less than 0.762 μm (30 μin) to about 0 and/or an average maximum height surface roughness (Rz) less than 0.508 μm (20 μin) to about 0. a wearing surface formed from an alloy including tin; a wear material configured to be contacted by the wearing surface during use, the wear material having a smoothed surface; and a lubricant composition comprising one or more additives having an affinity for tin; and wherein the wear material has a smoothed surface having a measured root mean squared surface roughness (Rq) less than 0.0762 micrometres (μm) (3 microinches (μin)) to about 0, and/or a maximum surface roughness (Rmax) less than 0.762 μm (30 μin) to about 0 and/or an average maximum height surface roughness (Rz) less than 0.508 μm (20 μin) to about 0.
Dosing device for liquids, with a distributor rail and a plurality of dosing units for the liquid that are hydraulically connected to the distributor rail, wherein each dosing unit has a valve unit and, detachably arranged on the valve unit, a piston-cylinder unit for drawing in and measured discharging of the liquid, wherein each valve unit has a hydraulic connection element for detachable hydraulic connection to the distributor rail, wherein the distributor rail has an elongate fluid supply line, which has at its end a supply connection for the liquid and has dosing unit connections distributed laterally along its length, preferably arranged with equidistant spacing, which dosing unit connections are detachably coupled to the hydraulic connection elements of the dosing units, characterised in that the distributor rail is designed as a replaceable part made of plastic, and is assembled from individual rail segments, and in that the connections of the rail segments are designed as fluid-impervious plug connection elements and/or flange connection elements.
Device for rolling up and unrolling a leash, in particular for leading an animal, with a leash roller, and with a blocking means, which has an actuating element and a locking element, wherein the leash roller can be blocked by means of the blocking means for blocking an unrolling motion of the leash roller, and the actuating element can be actuated by means of an actuating motion, and wherein, based on the actuating motion of the actuating element, a locking motion of the locking element can be triggered for blocking the unrolling motion of the leash roller, characterised in that the actuating motion is transferable by means of a transfer means onto a greater locking motion of the locking element for the actuating motion, wherein the locking element is connected pivotably to the actuating element in order for an actuating motion to be transferred into a pivoting motion of the actuating element, and the actuating element is a brake button that can be operated by a person, the locking element is designed as a stop surface and is associated to the transfer means designed as a lever.
A method for selecting at least one element of a Graphical User Interface, or GUI, displayed on a display of a device using a touch interface of said device, the method comprising: - detecting on the touch interface a double touch input, said double touch input comprising a first touch input and a second touch input on the touch interface, said first and second touch inputs respectively corresponding to a first location and a second location on the GUI, - determining a selection location between the first and second locations (L1, L2), - upon detecting a release of the first touch input while the second touch input remains on the touch interface, determining a first selection location corresponding to the selection location at the moment of the release of the first touch input, - determining an initial preselection (INIT) comprising at least one GUI element located between the first selection location and the second location, - determining a preselection (PRESEL) of at least one GUI element as defined by a user based on the initial preselection (INIT) by moving the second touch input on the touch interface to thereby define a new position of the selection location which corresponds to a second selection location on the GUI, and - executing a selection of at least one GUI element of said preselection located between the first and second selection locations. - detecting on the touch interface a double touch input, said double touch input comprising a first touch input and a second touch input on the touch interface, said first and second touch inputs respectively corresponding to a first location and a second location on the GUI, - determining a selection location between the first and second locations (L1, L2), - upon detecting a release of the first touch input while the second touch input remains on the touch interface, determining a first selection location corresponding to the selection location at the moment of the release of the first touch input, - determining an initial preselection (INIT) comprising at least one GUI element located between the first selection location and the second location, - determining a preselection (PRESEL) of at least one GUI element as defined by a user based on the initial preselection (INIT) by moving the second touch input on the touch interface to thereby define a new position of the selection location which corresponds to a second selection location on the GUI, and - executing a selection of at least one GUI element of said preselection located between the first and second selection locations.