mhurhangee/ep-ind-claims huggingface dataset:
A machine arrangement for sequential processing of sheet-type substrates, having multiple different processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12), wherein several processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) each have a substrate guiding unit and a substrate processing unit, wherein at least one of the processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) has as a substrate processing unit respectively at least one non-impact printing unit (06; 37) respectively printing the substrates, wherein the relevant processing station having the at least one non-impact printing unit (06; 37) has a printing cylinder (22; 38), wherein the respective non-impact printing unit (06; 37) is respectively arranged on the circumference of the printing cylinder (22; 38), wherein the respective printing cylinder (22; 38) is respectively designed triple-sized or quadruple-sized, wherein the respective printing cylinder (22; 38) respectively has on its lateral surface in the circumferential direction successively in the case of triple-sized design three or in the case of quadruple-sized design four fields (51; 52; 53; 54) respectively for holding one substrate respectively, wherein a double-sized or triple-sized designed transfer drum or a corresponding feed cylinder is respectively arranged upstream of the respective printing cylinder (22; 38) or a corresponding transport cylinder is arranged directly downstream of said printing cylinder, characterized in that with reference to the relevant printing cylinder (22; 38) a rotational angle position of the trailing end of a first field (51; 52; 53; 54) relative to the advancing end of a second field (51; 52; 53; 54) directly following the relevant first field (51; 52; 53; 54) in rotary direction of this printing cylinder (22; 38) is variably adjustable depending on the format of the substrate to be held in the first field (51; 52; 53; 54).
A domestic appliance comprising a vat in which the water is brought to the boil and a scale collection container arranged in the vicinity of the bottom of the vat, with the container having an elongated shape allowing it to be removed from or inserted into the vat by an aperture arranged on a side wall of the vat, with said container being inserted in said aperture by a terminal end of the container and comprising at least one cavity having an upper opening forming a passage (d 1, d 2) through which the scale particles are collected in the cavity, characterized in that said upper opening has a passage section tapering as it approaches the terminal end of the container.
Workstation from at least two workstation furniture (10, 20), which provide a working surface (11, 21), wherein the workstation furniture (10, 20) are connected with each other by means of a rotatably connecting means, wherein each workstation furniture (10, 20) is provided with a V-shaped formed foot (14, 24) from respectively two under an angle α to each other orientated foot sections (14a, 14b respectively 24a, 24b), wherein the feet (14, 24) are disposed adjacent to the lower end of respectively a mainstay (15, 25), characterized in that respectively a foot section (14a, 24a) of each foot (14, 24) forms a connecting arm of the connecting means.
Contacting element for connecting an electrical or electronic module to an elongate lighting support rail which comprises an elongate support rail profile which, together with two opposite elongate side walls (102, 103), delimits a receiving space which is accessible via a receiving opening and in which at least one busbar is provided with lines which are electrically contactable from the receiving space and extend in the longitudinal direction of the support rail profile, wherein the contacting element comprises: • a fastening part having ∘ a connecting portion for mechanically coupling the contacting element to the electrical or electronic module, and ∘ a coupling portion which extends away from the connecting portion in an extension direction, and • a connection part having a main body which is connected, via a connecting structure, to the coupling portion so as to be rotatable about an axis of rotation extending in the extension direction in order to move the connection part between an assembly position and a coupling position, wherein the connection part further comprises a maneuvering portion, wherein the connecting structure is designed such that it transfers a translational actuating force applied to an actuating portion of the maneuvering portion into the relative rotation between the connection part and the fastening part in order to thereby move the connection part from the assembly position into the coupling position, wherein the connection part further comprises at least one electrical contact element which projects radially outward with respect to the axis of rotation so that, when the connection part rotates relative to the fastening part, the contact element moves together with the main body about the axis of rotation. • a fastening part having ∘ a connecting portion for mechanically coupling the contacting element to the electrical or electronic module, and ∘ a coupling portion which extends away from the connecting portion in an extension direction, and ∘ a connecting portion for mechanically coupling the contacting element to the electrical or electronic module, and ∘ a coupling portion which extends away from the connecting portion in an extension direction, and • a connection part having a main body which is connected, via a connecting structure, to the coupling portion so as to be rotatable about an axis of rotation extending in the extension direction in order to move the connection part between an assembly position and a coupling position, wherein the connection part further comprises a maneuvering portion, wherein the connecting structure is designed such that it transfers a translational actuating force applied to an actuating portion of the maneuvering portion into the relative rotation between the connection part and the fastening part in order to thereby move the connection part from the assembly position into the coupling position,
A computer-implemented method for middle frame image processing, the computer-implemented method comprising: capturing, by a first image sensor (102A; 202A), a first full frame image data object associated with a first full frame image size; capturing, by a second image sensor (102B; 202B), a second full frame image data object associated with a second full frame image size; outputting, to an image frame multiplexer (104; 206), a first middle frame image data object generated by the first image sensor and a second middle frame image data object generated by the second image sensor, the first middle frame image data object and the second middle frame image data object associated with a shared middle frame image size, wherein the middle frame image size represents a resolution falling between a first resolution defined by the first full frame image size and a second resolution defined by the second full frame image size; selecting, by the image frame multiplexer (104; 206), a selected middle frame image data object comprising the first middle frame image data object or the second middle frame image data object; receiving, by a processor (106; 212), the selected middle frame image data object from the image frame multiplexer (104; 206); and processing, by the processor (106; 212), the selected middle frame image data object. capturing, by a first image sensor (102A; 202A), a first full frame image data object associated with a first full frame image size; capturing, by a second image sensor (102B; 202B), a second full frame image data object associated with a second full frame image size; outputting, to an image frame multiplexer (104; 206), a first middle frame image data object generated by the first image sensor and a second middle frame image data object generated by the second image sensor, the first middle frame image data object and the second middle frame image data object associated with a shared middle frame image size, wherein the middle frame image size represents a resolution falling between a first resolution defined by the first full frame image size and a second resolution defined by the second full frame image size; selecting, by the image frame multiplexer (104; 206), a selected middle frame image data object comprising the first middle frame image data object or the second middle frame image data object; receiving, by a processor (106; 212), the selected middle frame image data object from the image frame multiplexer (104; 206); and processing, by the processor (106; 212), the selected middle frame image data object.
A method for paging a user equipment, UE, by a mobility management entity, MME, in a communication system, the method comprising: receiving, from a serving gateway, SGW, a downlink data notification, DDN, message associated with a packet switched, PS, service for the UE; transmitting, to an evolved Node B, eNB, a paging message for the PS service without a paging priority based on the DDN message; while waiting for a response of the UE to the paging message for the PS service without the paging priority, receiving (320, 322), from a mobile switching center, MSC, via an interworking solution, IWS, a paging request message associated with a circuit switched, CS, service for the UE, the paging request message including a priority indication; and transmitting (324, 326), to the eNB, a paging message for the CS service based on the paging request message, the paging message for the CS service including the paging priority and domain information, wherein the paging priority indicates to handle the paging message for the CS service in preference to the paging message for the PS service. receiving, from a serving gateway, SGW, a downlink data notification, DDN, message associated with a packet switched, PS, service for the UE; transmitting, to an evolved Node B, eNB, a paging message for the PS service without a paging priority based on the DDN message; while waiting for a response of the UE to the paging message for the PS service without the paging priority, receiving (320, 322), from a mobile switching center, MSC, via an interworking solution, IWS, a paging request message associated with a circuit switched, CS, service for the UE, the paging request message including a priority indication; and transmitting (324, 326), to the eNB, a paging message for the CS service based on the paging request message, the paging message for the CS service including the paging priority and domain information, wherein the paging priority indicates to handle the paging message for the CS service in preference to the paging message for the PS service.
A method for video based pedestrian traffic estimation comprising: detecting persons from a video input obtained using a camera at a physical indoor location indicated in an annotation layer as a camera object, the camera object corresponds to a node connected by at least one route segment of a routability graph, the annotation layer and the routability graph corresponding to a map of an indoor location; determining pedestrian traffic for the at least one route segment of the routability graph based on the detected persons; tracking the determined pedestrian traffic based on trajectories of pedestrian motion at the node over time to develop a statistical model of the determined pedestrian traffic distribution in terms of the probability that a pedestrian would take a certain direction at the node; predicting pedestrian traffic for the at least one route segment of the routability graph based on the statistical model; and updating a traffic object in the annotation layer based on existing and predicted pedestrian traffic, wherein the traffic object comprises traffic-related information for said camera object. detecting persons from a video input obtained using a camera at a physical indoor location indicated in an annotation layer as a camera object, the camera object corresponds to a node connected by at least one route segment of a routability graph, the annotation layer and the routability graph corresponding to a map of an indoor location; determining pedestrian traffic for the at least one route segment of the routability graph based on the detected persons; tracking the determined pedestrian traffic based on trajectories of pedestrian motion at the node over time to develop a statistical model of the determined pedestrian traffic distribution in terms of the probability that a pedestrian would take a certain direction at the node; predicting pedestrian traffic for the at least one route segment of the routability graph based on the statistical model; and updating a traffic object in the annotation layer based on existing and predicted pedestrian traffic, wherein the traffic object comprises traffic-related information for said camera object.
A method, in a macro base station of a heterogonous communication network, of assisting a user equipment in discovering a small cell, wherein the method comprises the steps of: a. determining whether the user equipment has approached to a region which includes one or more small cells based upon stored location range information of all small cells in a macro cell and estimated position information of the user equipment; b. if the user equipment has approached to the region, transmitting a dedicated signaling to the user equipment to notify the user equipment that the user equipment has approached to the region, wherein the dedicated signaling includes one or more cell IDs of the one or more small cells in the region; and c. receiving from the user equipment an acknowledge indication for triggering the macro base station to prepare for a handover, and preparing the handover based upon the acknowledge indication, wherein the acknowledge indication includes a cell ID of a target small cell which is a small cell with strongest signal strength measured by the user equipment among the one or more small cells in the region. a. determining whether the user equipment has approached to a region which includes one or more small cells based upon stored location range information of all small cells in a macro cell and estimated position information of the user equipment; b. if the user equipment has approached to the region, transmitting a dedicated signaling to the user equipment to notify the user equipment that the user equipment has approached to the region, wherein the dedicated signaling includes one or more cell IDs of the one or more small cells in the region; and c. receiving from the user equipment an acknowledge indication for triggering the macro base station to prepare for a handover, and preparing the handover based upon the acknowledge indication, wherein the acknowledge indication includes a cell ID of a target small cell which is a small cell with strongest signal strength measured by the user equipment among the one or more small cells in the region.
A method of processing a tissue sample for deep imaging, the method comprising the steps of: obtaining a tissue sample; simultaneously dehydrating and staining the tissue sample by contacting the tissue sample with a fixative solution comprising methacarn as a fixative and a fluorescent dye comprising 10μm of 2-(4-amidinophenyl)-1H-indole-6-carboxamidine (DAPI) and 0.5% by volume eosin; and clearing the tissue sample with a clearing solution of 100% benzyl alcohol and benzyl benzoate (BABB). obtaining a tissue sample; simultaneously dehydrating and staining the tissue sample by contacting the tissue sample with a fixative solution comprising methacarn as a fixative and a fluorescent dye comprising 10μm of 2-(4-amidinophenyl)-1H-indole-6-carboxamidine (DAPI) and 0.5% by volume eosin; and clearing the tissue sample with a clearing solution of 100% benzyl alcohol and benzyl benzoate (BABB).
An aqueous dispersion comprising i) at least one non-aromatic polyol compound containing at least one cyclic polyol unit having at least two hydroxyl groups, and at least one long chain unit containing at least 6 carbon atoms; ii) at least one fluoropolymer comprising repeating units derived from a fluorinated olefin, wherein the polyol compound comprises at least one sugar unit that has been modified to contain at least one long chain unit containing at least 6 carbon atoms and wherein the at least one sugar unit comprises a six-membered ring of five carbon atoms and one oxygen atom and contains at least two hydroxy groups bonded to the carbon ring. i) at least one non-aromatic polyol compound containing at least one cyclic polyol unit having at least two hydroxyl groups, and at least one long chain unit containing at least 6 carbon atoms; ii) at least one fluoropolymer comprising repeating units derived from a fluorinated olefin, wherein the polyol compound comprises at least one sugar unit that has been modified to contain at least one long chain unit containing at least 6 carbon atoms and wherein the at least one sugar unit comprises a six-membered ring of five carbon atoms and one oxygen atom and contains at least two hydroxy groups bonded to the carbon ring.
A luciferase comprising amino acid sequence selected from the group consisting of amino acid sequence represented by SEQ ID NO: 1, amino acid sequence represented by SEQ ID NO: 15, amino acid sequence having 99% or more similarity with the amino acid sequence represented by SEQ ID NO: 1 or 15, and amino acid sequence having 95% or more identity with the amino acid sequence represented by SEQ ID NO: 1 or 15.
A method of scheduling Msg3 configuration by a network node (20, 600), the method comprising: generating an information message, comprised in a Random Access Response Uplink grant, wherein the information message comprising an entry in a time domain assignment table indicating transmission duration, slot offset, demodulation reference signal, DMRS, configuration, and starting position for Msg3 sending by a 5G user equipment, UE (10, 500), wherein the slot offset is dependent on a subcarrier spacing; and initiating transmission of signaling of the information message to the UE (10, 500) for scheduling Msg3 transmission by the UE (10, 500). generating an information message, comprised in a Random Access Response Uplink grant, wherein the information message comprising an entry in a time domain assignment table indicating transmission duration, slot offset, demodulation reference signal, DMRS, configuration, and starting position for Msg3 sending by a 5G user equipment, UE (10, 500), wherein the slot offset is dependent on a subcarrier spacing; and initiating transmission of signaling of the information message to the UE (10, 500) for scheduling Msg3 transmission by the UE (10, 500).
A combustor, comprising: a. a combustion chamber that defines a longitudinal axis; b. a primary reaction zone inside the combustion chamber; c. a secondary reaction zone inside the combustion chamber downstream from the primary reaction zone; d. a center fuel nozzle that extends axially inside the combustion chamber; and e. a plurality of fluid injectors circumferentially arranged inside the center fuel nozzle downstream from the primary reaction zone, wherein each fluid injector defines an additional longitudinal axis out of the center fuel nozzle that is substantially perpendicular to the longitudinal axis of the combustion chamber wherein the center fuel nozzle extends axially inside the combustion chamber through the primary reaction zone to the secondary reaction zone and the fluid injectors are configured and arranged to discharge one of a compressed working fluid and a fuel-air mixture into the combustion chamber, characterised in that the working fluid or the fuel-air-mixture are discharged substantially normal to the flow of combustion gases inside the combustion chamber. a. a combustion chamber that defines a longitudinal axis; b. a primary reaction zone inside the combustion chamber; c. a secondary reaction zone inside the combustion chamber downstream from the primary reaction zone; d. a center fuel nozzle that extends axially inside the combustion chamber; and e. a plurality of fluid injectors circumferentially arranged inside the center fuel nozzle downstream from the primary reaction zone, wherein each fluid injector defines an additional longitudinal axis out of the center fuel nozzle that is substantially perpendicular to the longitudinal axis of the combustion chamber wherein the center fuel nozzle extends axially inside the combustion chamber through the primary reaction zone to the secondary reaction zone and the fluid injectors are configured and arranged to discharge one of a compressed working fluid and a fuel-air mixture into the combustion chamber, characterised in that the working fluid or the fuel-air-mixture are discharged substantially normal to the flow of combustion gases inside the combustion chamber.
An apparatus comprising: a receiving section configured to receive downlink control information that is used for scheduling of a downlink shared channel; a control section configured to determine an assignment symbol location of the downlink shared channel and a transmission timing of a delivery acknowledgement signal for the downlink shared channel based on the downlink control information, and to obtain a downlink data signal in the downlink shared channel; and an output section configured to output information related to the downlink data signal. a receiving section configured to receive downlink control information that is used for scheduling of a downlink shared channel; a control section configured to determine an assignment symbol location of the downlink shared channel and a transmission timing of a delivery acknowledgement signal for the downlink shared channel based on the downlink control information, and to obtain a downlink data signal in the downlink shared channel; and an output section configured to output information related to the downlink data signal.
Method for the in particular wireless transmission of electronic data between at least two connection partners, in particular between a hand-held machine tool and an external unit, characterized in that, in at least one method step, a data connection is set up, in particular automatically, between the connection partners on the basis of a comparison of movement parameters of the connection partners.