mhurhangee/ep-ind-claims huggingface dataset:
Method to move containers in a processing line that comprises a station for storing and picking up said containers and a station at least for filling said containers, said method providing, in said storage and pick-up station, to: - supply a container-holding tray containing a plurality of said containers disposed resting in an orderly manner, according to a pattern defined by a positioning matrix, on said container-holding tray with their mouth facing toward a bottom wall of said container-holding tray, - upend said containers disposed in said container-holding tray by means of upending means comprising an upending tray configured to couple with said container-holding tray so as to engage, according to said pattern defined by said positioning matrix, at least one part of said containers, said upended containers being supported at the bottom by said upending tray, said method being characterized in that it also provides to move, with respect to said upending tray, extraction means to pick up, from said upending tray, at least two containers disposed in two parallel and consecutive rows (I, II) of said positioning matrix, of which a first container of said at least two containers is positioned in a first row and a second container of said at least two containers is positioned in a second row, wherein said extraction means are moved in a pick-up direction on a substantially horizontal plane, so that the extraction means first encounter the first container to be picked up and then the second container to be picked up, which is therefore further downstream, when said extraction means move toward the container-holding tray in the pick-up direction, and subsequently to move said at least two containers picked up with said extraction means toward said at least filling station. - supply a container-holding tray containing a plurality of said containers disposed resting in an orderly manner, according to a pattern defined by a positioning matrix, on said container-holding tray with their mouth facing toward a bottom wall of said container-holding tray, - upend said containers disposed in said container-holding tray by means of upending means comprising an upending tray configured to couple with said container-holding tray so as to engage, according to said pattern defined by said positioning matrix, at least one part of said containers, said upended containers being supported at the bottom by said upending tray,
A level tool comprising: a body including at least one vial opening (106a-106c); a vial (112a-112c) disposed at least partially within the at least one vial opening (106a-106c); a light source (114a-114c) for illuminating the vial (112a-112c); and an insert member (115a-115c) mounted at a predetermined location in the body relative to the at least one vial opening (106a-106c), the insert member (115a-115c) configured to receive the vial (112a-112c) therein and to hold the light source (114a-114c) opposite an end of the vial (112a-112c), wherein the insert member (115a-115c) has a generally U-shaped cross-sectional shape that defines an internal cavity for receiving the vial (112a-112c), and characterized in that the insert member has a protrusion that defines an opening in a side wall of the insert member (115a-115c) for holding the light source (114a-114c) opposite the end of the vial (112a-112c). a body including at least one vial opening (106a-106c); a vial (112a-112c) disposed at least partially within the at least one vial opening (106a-106c); a light source (114a-114c) for illuminating the vial (112a-112c); and an insert member (115a-115c) mounted at a predetermined location in the body relative to the at least one vial opening (106a-106c), the insert member (115a-115c) configured to receive the vial (112a-112c) therein and to hold the light source (114a-114c) opposite an end of the vial (112a-112c), wherein the insert member (115a-115c) has a generally U-shaped cross-sectional shape that defines an internal cavity for receiving the vial (112a-112c), and characterized in that the insert member has a protrusion that defines an opening in a side wall of the insert member (115a-115c) for holding the light source (114a-114c) opposite the end of the vial (112a-112c).
A mutant filamentous fungal host cell which has been modified in its genome, to result in a deficiency in the production of a polypeptide having glycoside synthase activity selected from the group consisting of: a. a polypeptide according to SEQ ID NO: 3 or a polypeptide at least 70% identical thereto; b. a mature polypeptide comprised in SEQ ID NO: 3 or a polypeptide at least 70% identical thereto; c. a polypeptide encoded by a polynucleotide according to SEQ ID NO: 1 or 2 or encoded by a polynucleotide at least 70% identical to SEQ ID NO: 1 or 2; d. a polypeptide encoded by a polynucleotide capable of hybridizing under high stringency conditions to a polynucleotide according to SEQ ID NO: 1 or 2 or capable of hybridising under high stringency conditions to the complementary strand of SEQ ID NO: 1 or 2; if compared with a parent filamentous fungal host cell which has not been modified and measured under the same conditions, wherein said mutant filamentous fungal host cell comprises at least one polynucleotide coding for a compound of interest, wherein the compound of interest is a polypeptide. a. a polypeptide according to SEQ ID NO: 3 or a polypeptide at least 70% identical thereto; b. a mature polypeptide comprised in SEQ ID NO: 3 or a polypeptide at least 70% identical thereto; c. a polypeptide encoded by a polynucleotide according to SEQ ID NO: 1 or 2 or encoded by a polynucleotide at least 70% identical to SEQ ID NO: 1 or 2; d. a polypeptide encoded by a polynucleotide capable of hybridizing under high stringency conditions to a polynucleotide according to SEQ ID NO: 1 or 2 or capable of hybridising under high stringency conditions to the complementary strand of SEQ ID NO: 1 or 2;
A method for testing a wireless communications network including a station and an access point, comprising the steps of sending broadcast packets from the station to the access point in a lower, 2.4 GHz frequency band and waiting for confirmation, calculating a packet loss in the lower frequency band based on the number of sent and confirmed broadcast packets, characterized by calculating a packet loss for a higher, 5 GHz frequency band by taking into account the calculated packet loss in the lower frequency band and by using a correlation function between the lower and the higher frequency band. sending broadcast packets from the station to the access point in a lower, 2.4 GHz frequency band and waiting for confirmation, calculating a packet loss in the lower frequency band based on the number of sent and confirmed broadcast packets, characterized by calculating a packet loss for a higher, 5 GHz frequency band by taking into account the calculated packet loss in the lower frequency band and by using a correlation function between the lower and the higher frequency band.
Method for the enzymatic production of C 6 -C 18 fatty alcohol and/or C 8 -C 18 fatty acid, by carbon chain elongation, comprising the steps of: i) providing organic C 2 -C 6 compounds; ii) subjecting the organic C 2 -C 6 compounds to enzymatic carbon chain elongation in the presence of an electron donor, wherein the electron donor is selected from the group comprising hydrogen, formate, carbon monoxide, organic C 1 -C 6 compounds with a degree of reduction higher than 4 and/or mixtures of the electron donors; and iii) separating the formed C 6 -C 18 fatty alcohol and/or C 8 -C 18 fatty acid, wherein the organic C 2 -C 6 compounds are provided in the form of biomass, pretreated biomass, fermented biomass and/or fractions thereof. i) providing organic C 2 -C 6 compounds; ii) subjecting the organic C 2 -C 6 compounds to enzymatic carbon chain elongation in the presence of an electron donor, wherein the electron donor is selected from the group comprising hydrogen, formate, carbon monoxide, organic C 1 -C 6 compounds with a degree of reduction higher than 4 and/or mixtures of the electron donors; and iii) separating the formed C 6 -C 18 fatty alcohol and/or C 8 -C 18 fatty acid,
A polymer characterized in that, the polymer comprises units represented by the following formula 1, formula 2, formula 3 and formula 4: wherein, m is greater than or equal to 1, n, k is greater than or equal to 0; j>0; R 1, R 2 are the same or different, independently selected from H, at least one of C 1-8 alkanes; R 3 and R 4 are selected from H or hydroxyl and R 3 and R 4 are different, R 5 and R 6 are the same or different, independently selected from H or hydroxyl.
A method, comprising: utilizing, at a network access node, parameters in a configuration message communicated downlink between the network access node and a user equipment for setting at least a sensing time during which the user equipment performs spectrum sensing, wherein the sensing time is no longer than one guard period of a subframe; deciding, by the network access node, from at least a result of the spectrum sensing whether to utilize a frequency band sensed according to the parameters for direct local communications between the user equipment and at least one paired device; and sending the user equipment an indication of the result of the deciding at least for the case the access node approves the frequency band for the direct local communications. utilizing, at a network access node, parameters in a configuration message communicated downlink between the network access node and a user equipment for setting at least a sensing time during which the user equipment performs spectrum sensing, wherein the sensing time is no longer than one guard period of a subframe; deciding, by the network access node, from at least a result of the spectrum sensing whether to utilize a frequency band sensed according to the parameters for direct local communications between the user equipment and at least one paired device; and sending the user equipment an indication of the result of the deciding at least for the case the access node approves the frequency band for the direct local communications.
Method for calculating a navigation phase for a carrier in a navigation system involving terrain correlation, modeled by a system of equations in discrete time in accordance with a discrete-time relation of the type: { X t + 1 = F t X t + V t Y t = h t X t + W t where the term X t, comprises at least the kinematic state of the system, the initial state X 0 containing at least the error of the initial inertial platform modeled as a centered Gaussian random variable with covariance P 0; the matrix F t of the linear evolution of the state contains at least the inertial platform model used; Y=(Y t,t≥0) the observations vector is formed at least of the measurements of the terrain sensor; V t and W t are centered independent Gaussian white noise with respective positive definite covariances Q t and R t, said noise being mutually independent and independent of the initial state X 0; the term h t represents the combination of the model of the terrain sensors and of the onboard maps, the navigation system comprising at least: • a navigation block comprising an inertial platform and at least one terrain sensor which are accompanied by their error models, • at least one onboard map, the method calculating a navigability map determining for a plurality of points of interest of the onboard map, navigability scores, the calculation method being characterized in that it takes into account an error model of said onboard map, the navigability score at a point X of the onboard map is equal to the square of the norm of the terrain gradient weighted by a weighting coefficient α taking into account relative qualities of the terrain, i.e. α.∥∇ x h terrain ∥ 2, the weighting coefficient α is equal to the inverse of the scalar variance of the noise at the point X, i.e. VAR and the terrain gradient being defined by the gradient of the function h=h terrain. • a navigation block comprising an inertial platform and at least one terrain sensor which are accompanied by their error models, • at least one onboard map,
A method comprising: determining a status associated with a function of a portable electronic device; and actuating a tactile status indicator to change a texture at a surface of an accessory of the portable electronic device for a period of time to indicate the status, wherein the surface is part of a housing of the accessory, and the accessory receives status information wirelessly from the portable electronic device. determining a status associated with a function of a portable electronic device; and actuating a tactile status indicator to change a texture at a surface of an accessory of the portable electronic device for a period of time to indicate the status, wherein the surface is part of a housing of the accessory, and the accessory receives status information wirelessly from the portable electronic device.
A remotely-operated subsea carriage arranged to walk along an elongate member of an offshore structure while carrying a payload, the carriage comprising: individually-operable upper and lower clamps that are spaced axially along a common longitudinal axis around which the clamps can be closed; an axially-extensible frame connecting the clamps (42, 46); and a walk drive acting on the frame, operable to extend and retract the frame in a direction parallel to the longitudinal axis to vary an axial distance between the clamps (42, 46); wherein at least one of the clamps (42, 46) is attached to the frame via a rotationally-displaceable coupling for relative angular movement between that clamp (42, 46) and the frame about the longitudinal axis; and wherein the rotationally-displaceable coupling comprises a path curved around the longitudinal axis and a path follower arranged for relative movement along the path. individually-operable upper and lower clamps that are spaced axially along a common longitudinal axis around which the clamps can be closed; an axially-extensible frame connecting the clamps (42, 46); and a walk drive acting on the frame, operable to extend and retract the frame in a direction parallel to the longitudinal axis to vary an axial distance between the clamps (42, 46); wherein at least one of the clamps (42, 46) is attached to the frame via a rotationally-displaceable coupling for relative angular movement between that clamp (42, 46) and the frame about the longitudinal axis; and wherein the rotationally-displaceable coupling comprises a path curved around the longitudinal axis and a path follower arranged for relative movement along the path.
An active matrix LED display comprising a plurality of display substrates (100, 500) each having flexibility, a plurality of pixel forming units formed on each of the substrates, each of the pixel forming units having a plurality of pixels, each of the pixels having a pixel driving circuit substrate and an inorganic LED element (410, 411, 412), the pixel driving circuit substrate including a pixel driving circuit formed thereon and the inorganic LED element being electrically connected with the pixel driving circuit such that each inorganic LED element has an individual driving circuit, wherein the pixel driving circuit is formed of at least one organic thin film transistor, wherein the plurality of substrates are arranged in the column direction and the row direction, and wherein each of the plurality of substrates has an inter-substrate connecting terminal at a substrate end for electrically connecting the pixel driving circuits to one another.
A humeral nail (100, 200) comprising: a humeral nail body (102, 202, 302, 402) defining a nail longitudinal axis (108, 208) extending from a proximal portion to a distal portion of the humeral nail body (102, 202, 302, 402); and a calcar through bore (142, 342, 442) extending through the humeral nail body (102, 202, 302, 402) and defining at least two different variable angle calcar screw trajectories (144, 146) extending distal to proximal, wherein a bore entrance of the calcar through bore is configured to be positioned anterior and lateral relative to a bore exit when the humeral nail is implanted in a humerus of the patient and wherein each of the at least two different calcar screw trajectories (144, 146) is configured to target a calcar region of a patient. a humeral nail body (102, 202, 302, 402) defining a nail longitudinal axis (108, 208) extending from a proximal portion to a distal portion of the humeral nail body (102, 202, 302, 402); and a calcar through bore (142, 342, 442) extending through the humeral nail body (102, 202, 302, 402) and defining at least two different variable angle calcar screw trajectories (144, 146) extending distal to proximal, wherein a bore entrance of the calcar through bore is configured to be positioned anterior and lateral relative to a bore exit when the humeral nail is implanted in a humerus of the patient and wherein each of the at least two different calcar screw trajectories (144, 146) is configured to target a calcar region of a patient.
A method of detecting degaussing of a generator in a hybrid-type shovel, the hybrid-type shovel comprising: an engine; a hydraulic pump driven by an output of the engine; a boom drive hydraulic cylinder and an arm drive hydraulic cylinder that are driven by hydraulic pressure supplied from the hydraulic pump; a generator coupled to the engine and generating electric power by revolution of said engine; an electric power accumulating means that supplies electric power to the generator; and a turning motor connected to said electric power accumulating means via an inverter to drive a turning mechanism, wherein said electric power accumulating means includes a DC bus connected to an electric power accumulator and supplying a direct current, a smoothing capacitor provided to the DC bus, and a voltage detector that is adapted to detect a voltage of the DC bus; said method comprising: rotationally driving said generator by said engine to generate an induced voltage when starting said engine; and determining degaussing of a permanent magnet of said generator by performing a comparison between the induced voltage detected by said voltage detector and a previously set reference induced voltage. an engine; a hydraulic pump driven by an output of the engine; a boom drive hydraulic cylinder and an arm drive hydraulic cylinder that are driven by hydraulic pressure supplied from the hydraulic pump; a generator coupled to the engine and generating electric power by revolution of said engine; an electric power accumulating means that supplies electric power to the generator; and a turning motor connected to said electric power accumulating means via an inverter to drive a turning mechanism, wherein said electric power accumulating means includes a DC bus connected to an electric power accumulator and supplying a direct current, a smoothing capacitor provided to the DC bus, and a voltage detector that is adapted to detect a voltage of the DC bus; said method comprising: rotationally driving said generator by said engine to generate an induced voltage when starting said engine; and determining degaussing of a permanent magnet of said generator by performing a comparison between the induced voltage detected by said voltage detector and a previously set reference induced voltage. rotationally driving said generator by said engine to generate an induced voltage when starting said engine; and determining degaussing of a permanent magnet of said generator by performing a comparison between the induced voltage detected by said voltage detector and a previously set reference induced voltage.
A contact mechanism for engaging driving projections (43, 44) provided on one end of a slidable card with a distal end of a movable contact plate and sliding the card to rotate the movable contact plate, causing movable contacts (56, 57) on the movable contact plate to connect with and disconnect from stationary contacts (52, 53), the contact mechanism comprising: a pair of driving projections (43, 44) disposed on one end of the card and projected in opposite directions from neighborhood corners of the one end of the card; and a pair of returning elastic tongues (67b, 67c) disposed so that they can make contacts with the driving projections (43, 44); characterized in that, in condition that the movable contacts (56, 57) are in contact with the stationary contacts (52, 53), a distance between one of the driving projections (43, 44) and one of the returning elastic tongues (67b, 67c) is smaller than that between the other of the driving projections (43, 44) and the other of the returning elastic tongues (67b, 67c) and the pair of driving projections (43, 44) of the card takes the same shape and the pair of returning elastic tongues (67b, 67c) of the movable contact plate takes different shapes from each other. a pair of driving projections (43, 44) disposed on one end of the card and projected in opposite directions from neighborhood corners of the one end of the card; and a pair of returning elastic tongues (67b, 67c) disposed so that they can make contacts with the driving projections (43, 44); in condition that the movable contacts (56, 57) are in contact with the stationary contacts (52, 53), a distance between one of the driving projections (43, 44) and one of the returning elastic tongues (67b, 67c) is smaller than that between the other of the driving projections (43, 44) and the other of the returning elastic tongues (67b, 67c) and the pair of driving projections (43, 44) of the card takes the same shape and the pair of returning elastic tongues (67b, 67c) of the movable contact plate takes different shapes from each other.