mhurhangee/ep-ind-claims huggingface dataset:
A method to provide page message delivery to an idle device performed by a proxy device serving also a connected device of a wireless communication system the method characterised by: establishing a first communication link between the proxy device and a network device of the wireless communication system for a communication session of the connected device via the proxy device, the first communication link including a control channel; monitoring the control channel by the proxy device for information directed to the idle device; and communicating, by the proxy device while serving the connected device via the first communication link, at least a portion of the information to the idle device via a second communication link, established between the proxy device and the idle device. establishing a first communication link between the proxy device and a network device of the wireless communication system for a communication session of the connected device via the proxy device, the first communication link including a control channel; monitoring the control channel by the proxy device for information directed to the idle device; and communicating, by the proxy device while serving the connected device via the first communication link, at least a portion of the information to the idle device via a second communication link, established between the proxy device and the idle device.
A method for producing an electronic component, comprising the following steps: - providing a semiconductor array comprising a carrier structure including at least one semiconductor chip (3, 4, 16) incorporated into a potting compound, a redistribution layer including flexible material and at least one strip conductor (12, 13), wherein the carrier structure, at least in regions, is connected to the redistribution layer, and the at least one semiconductor chip (3, 4, 16) is electrically conductively connected to the redistribution layer; and - separating the carrier structure along at least one trench (17, 17', 17", 17''', 17"") in such a manner that the carrier structure is divided into at least two diced carrier elements (20, 21, 22, 23), wherein two adjacent carrier elements of the diced carrier elements (20, 21, 22, 23) are connected to one another via the respective trench (17, 17', 17", 17''', 17"") by way of the redistribution layer, wherein the separating of the carrier structure is carried out by at least one V-cut (17''', 17"") that is tapered in the direction of the redistribution layer. - providing a semiconductor array comprising a carrier structure including at least one semiconductor chip (3, 4, 16) incorporated into a potting compound, a redistribution layer including flexible material and at least one strip conductor (12, 13), wherein the carrier structure, at least in regions, is connected to the redistribution layer, and the at least one semiconductor chip (3, 4, 16) is electrically conductively connected to the redistribution layer; and - separating the carrier structure along at least one trench (17, 17', 17", 17''', 17"") in such a manner that the carrier structure is divided into at least two diced carrier elements (20, 21, 22, 23), wherein two adjacent carrier elements of the diced carrier elements (20, 21, 22, 23) are connected to one another via the respective trench (17, 17', 17", 17''', 17"") by way of the redistribution layer, wherein the separating of the carrier structure is carried out by at least one V-cut (17''', 17"") that is tapered in the direction of the redistribution layer.
Rolling bearing having a plurality of rolling elements that are received between at least two raceways (4, 5) on which the rolling elements roll off, wherein spacers that space the rolling elements apart from one another and that leave open the joint between the racetracks (4, 5), are provided between the rolling elements, wherein at least one of the raceways (4, 5) has an approximately groove-like longitudinal cutout (11, 12) in a center section (9, 10) in which longitudinal cutout (11, 12) support arms run that are provided between the spacers, that each engage around the rolling element between two adjacent spacers and that support the adjacent spacers against one another in the direction of running of the rolling elements, characterized in that the spacers are formed separately so that a separate spacer is provided between each pair of adjacent rolling elements, wherein the support arms of the separate spacers each have a length that at least approximately corresponds to the desired spacing of the axes of rotation of adjacent rolling elements, and the support arms of adjacent spacers but against one another, wherein the support arms each have opposite end sections which are complementary to one another and contoured in a manner that they can be put together in a form-fit manner.
A method for transmitting an Enhanced Dedicated Channel, E-DCH, Random Access Uplink Control Channel, E-RUCCH, performed by a user equipment with CELL_FACH enhancement, the method comprising: judging, by the user equipment whether a plurality of E-RUCCH transmission processes temporally overlap; wherein the plurality of E-RUCCH transmission processes comprises an E-RUCCH transmission process triggered due to transmission of uplink enhanced channel data from the user equipment, an E-RUCCH transmission process triggered due to uplink synchronization by the base station, and an E-RUCCH transmission process triggered due to transmission of a cell reselection indicator from the user equipment; and if the user equipment judges overlapping, then the user equipment selecting to perform one of the E-RUCCH transmission processes; and returning scheduling information and the identifier of the user equipment to a base station over an E-DCH Random Access Uplink Control Channel; characterized in that the method further comprises the user equipment selecting to perform the highest-priority one of the E-RUCCH transmission processes according to their priorities. judging, by the user equipment whether a plurality of E-RUCCH transmission processes temporally overlap; wherein the plurality of E-RUCCH transmission processes comprises an E-RUCCH transmission process triggered due to transmission of uplink enhanced channel data from the user equipment, an E-RUCCH transmission process triggered due to uplink synchronization by the base station, and an E-RUCCH transmission process triggered due to transmission of a cell reselection indicator from the user equipment; and if the user equipment judges overlapping, then the user equipment selecting to perform one of the E-RUCCH transmission processes; and returning scheduling information and the identifier of the user equipment to a base station over an E-DCH Random Access Uplink Control Channel;
A hoisting platform system configured to permit transport of loads to and between floors of a building, comprising: a) a roof lift coupled to a roof of a building, the roof lift including a pair of beams resting on the roof and jutting out from a side of the roof, a winch (22, 46) coupled to and positioned over the beams, and a mounting structure extending upwardly from the beams; and b) a floor deck (30, 50) disposed below the roof lift, coupled to a floor of the building and extending outwardly therefrom, characterized in that the mounting structure includes a plurality of cables coupled to and extending from a top region of the mounting structure downwardly at an angle, the cables being fixedly coupled to the roof and a pole extending upwardly from each of the beams and a cross-beam fixedly coupling each of the poles at a top region thereof and the cables include a pair of rear-anchored cables positioned opposite jutting ends of the beams and a pair of side-anchored cables positioned at a radial angle substantially orthogonal to the primary axis of the beams. a) a roof lift coupled to a roof of a building, the roof lift including a pair of beams resting on the roof and jutting out from a side of the roof, a winch (22, 46) coupled to and positioned over the beams, and a mounting structure extending upwardly from the beams; and b) a floor deck (30, 50) disposed below the roof lift, coupled to a floor of the building and extending outwardly therefrom, characterized in that the mounting structure includes a plurality of cables coupled to and extending from a top region of the mounting structure downwardly at an angle, the cables being fixedly coupled to the roof and a pole extending upwardly from each of the beams and a cross-beam fixedly coupling each of the poles at a top region thereof and the cables include a pair of rear-anchored cables positioned opposite jutting ends of the beams and a pair of side-anchored cables positioned at a radial angle substantially orthogonal to the primary axis of the beams.
A personal protective article comprising an RFID tag in an RFID circuit, wherein the RFID circuit comprises a switch (102, 302, 700A, 900, 1022, 1024), characterised in that the switch being responsive to an environmental condition related to the manner in which the article is used, such that the switch is in an on state to activate the RFID circuit when the article is being properly worn by a user to perform a task requiring said article and wherein the switch is in an off state to deactivate the RFID circuit when the article is in a configuration indicative of improper use, wherein the switch is selected from a load-sensitive switch, a tension-sensitive switch, an orientation-sensitive switch, a relative orientation sensitive switch, a switch sensitive to the presence of a magnetic field, and a light-sensitive switch.
Apparatus designed to determine and/or monitor at least one process variable of a medium in a vessel, with a unit capable of vibrating designed to be introduced into the vessel, with a housing, wherein the unit capable of vibrating is connected to the housing in such a way that the unit capable of vibrating seals the housing at an end and wherein at least a cavity is implemented in the unit capable of vibrating, said cavity being accessible from an interior area formed by the housing, with a drive/reception unit designed to excite the unit capable of vibrating to produce mechanical vibrations and designed to receive the mechanical vibrations and convert them into an electrical reception signal, and with a control/evaluation unit designed to regulate or control the excitation of vibrations and designed to evaluate the reception signal in relation to the process variable, wherein in the case of a tuning fork, the unit capable of vibrating has a first element in the form of a rod or paddle and a second element in the form of a rod or paddle, which are interconnected via a base, wherein a first cavity is implemented in a root zone, close to the base, of the first element, and a second cavity is implemented in a root zone, close to the base, of the second element, for the purpose of accommodating the drive/reception unit, wherein the drive/reception unit has two piezoelectric units (41, 42), wherein the two piezoelectric units (41, 42) of the drive/reception unit are introduced into the first and second cavity (31, 32) in such a way that the two cavities (31, 32) are filled with a potting material in such a way that the drive/reception unit is connected via the potting material with a wall of the first and of the second cavity (31, 32) in a friction-locking manner, or wherein in the case of a single rod, the unit capable of vibrating is designed as a rod-shaped hollow body with an inner mass formed in an interior of the hollow body on a wall of the hollow body, wherein the drive/reception unit has a piezoelectric unit, wherein the drive/reception unit is introduced into a third cavity implemented in the inner mass, wherein the drive/reception unit is introduced in the third cavity in such a way and the third cavity is filled with a potting material in such a way that the drive/reception unit is connected via the potting material with a wall of the third cavity in a friction-locking manner.
Retroreflector having one or more triple mirrors (24.1), each triple mirror (24.1) having three partial surfaces (1.1, 1.2, 1.3; 3.1, 3.2, 3.3; 6.1, 6.2, 6.3; 7.1, 7.2, 7.3; 9.1, 9.2, 9.3; 11.1, 11.2, 11.3; 17.1, 17.2, 17.3; 18.1, 18.2, 18.3; 20.1, 20.2, 20.3; 21.1, 21.2, 21.3), which adjoin one another in pairs at three dihedral edges and enclose dihedral angles of 90° ± 5° and touch one another in a triple mirror centre (1.4; 3.4; 6.4; 7.4; 9.4; 11.4; 17.4; 18.4; 20. 4; 21.4), wherein the retroreflector has a reflector body (24.9) made of translucent or semitransparent material, which has a reflective outer surface formed by the partial surfaces, wherein at least one of the triple mirrors is a triple mirror with preferred geometry, wherein the preferred geometry is defined in that in at least one partial surface (1.3; 3.2; 5.1; 7.3; 9.3; 11.3; 18.2; 20.2; 21.2) of each triple mirror with preferred geometry at least one optically active optical element (1.5; 3.5; 5.5; 7.5; 9.5; 11.5; 18.5; 20.5) is arranged, wherein each optical element (1.5; 3.5; 5.5; 7.5; 9.5; 11.5; 18.5; 20.5) is arranged at a distance from the dihedral edges, which delimit the partial surface (1.3; 3.2; 5.1; 7.3; 9.3; 11.3; 18.2; 20.2; 21.2), in which the relevant optical element (1.5; 3.5; 5.5; 7.5; 9.5; 11.5; 18.5; 20.5) is arranged, and wherein the reflecting outer surface faces away from a light entry surface (24.3) of the reflector body (24.9), characterised in that at least one of the optical elements (1.5, 3.5, 5.5, 7.5, 9.5, 11.5, 18.5, 20.5) is a depression in the reflecting outer surface and/or in that at least one of the optical elements (1.5, 3.5, 5.5, 7.5, 9.5, 11.5, 18.5, 20.5) protrudes from the reflecting outer surface and is integrally formed with the reflector body (24.9) and/or in that at least one of the optical elements (1.5, 3.5, 5.5; 7.5; 9.5; 11.5; 18.5; 20.5) is an optical lens, in particular a cylindrical lens.
Method for treating agricultural process water, wherein said process water is drained from an agricultural installation, wherein said drained process water is exposed during a residence time to an excess of an oxidizing reaction gas in the form of colloidal bubbles that are introduced into said process water for the purpose of decomposing waste products present therein, wherein said oxidizing reaction gas comprises ozone, wherein said process water is exposed to ultraviolet radiation after said residence time, in particular to ultraviolet light with a wavelength of about 254 nm, by which a remainder of said oxidizing reaction gas is at least largely decomposed, and wherein said process water is then redirected back to said agricultural installation.
A manufacturing method for manufacturing at least one three-dimensional object by means of an additive manufacturing apparatus, wherein in the additive manufacturing apparatus the at least one object is manufactured layer by layer by solidifying a construction material at the locations corresponding to the cross section of an object in a layer, wherein for the manufacturing process the manufacturing apparatus is controlled by a control command set, the manufacturing method comprising the steps: - Providing a parameter set consisting of a number of parameters and a design specification that is able to specify geometrically by means of the parameter set at least one portion of the object as a number of line-shaped or planar elements in space, wherein at least within one layer the geometrically specified portion of the object is composed solely of line-shaped elements, - Generating a computer-based layer model of the portion of the object by determining for each layer the location and shape of a cross-section of the portion of the object in this layer, - Generating the control command set for the additive manufacturing apparatus, by which control command set the manufacturing of the portion of the object based on the layer model is implemented. - Solidifying the construction material by supplying heat energy to the construction material by means of an electromagnetic beam or particle beam, wherein the line-shaped element(s) is/are scanned with the electromagnetic beam or particle beam one or more times along the course of the line. - Providing a parameter set consisting of a number of parameters and a design specification that is able to specify geometrically by means of the parameter set at least one portion of the object as a number of line-shaped or planar elements in space, wherein at least within one layer the geometrically specified portion of the object is composed solely of line-shaped elements, - Generating a computer-based layer model of the portion of the object by determining for each layer the location and shape of a cross-section of the portion of the object in this layer, - Generating the control command set for the additive manufacturing apparatus, by which control command set the manufacturing of the portion of the object based on the layer model is implemented. - Solidifying the construction material by supplying heat energy to the construction material by means of an electromagnetic beam or particle beam, wherein the line-shaped element(s) is/are scanned with the electromagnetic beam or particle beam one or more times along the course of the line.
A method for the purification of oxygen-free exhaust gases by means of regenerative post-combustion, wherein the exhaust gases comprise portions of combustibles up to 100 % and the energy content of the exhaust gases is directly used for heating the exhaust gases, including the steps of: a. Supplying the exhaust gases to be purified; b. Compensating pressure and quantity fluctuations in the exhaust gases to be purified; c. Mixing a first gas stream consisting of the exhaust gases to be purified with a second gas stream consisting of natural gas, wherein the amount of natural gas mixed depends on the content of the combustibles in the exhaust gases and sufficient to ensure a stable combustion; d. Introducing the mixed gas streams and a third gas stream consisting of combustion air into a burner of at least one combustion chamber; e. Combustion of the unified gas streams in the combustion chamber at such high temperatures that undesired, combustible gas portions are removed by oxidation, wherein the thermal energy obtained from the energy content of the exhaust gas during oxidation is directly used for heating the exhaust gases; f. Catalytic purification of the oxidized exhaust gases for reacting remaining impurities in a catalytic purification stage at the outlet of the combustion chamber; g. Introducing cooling air into the combustion chamber for adjusting the temperature required for the catalytic purification in the catalytic purification stage. a. Supplying the exhaust gases to be purified; b. Compensating pressure and quantity fluctuations in the exhaust gases to be purified; c. Mixing a first gas stream consisting of the exhaust gases to be purified with a second gas stream consisting of natural gas, wherein the amount of natural gas mixed depends on the content of the combustibles in the exhaust gases and sufficient to ensure a stable combustion; d. Introducing the mixed gas streams and a third gas stream consisting of combustion air into a burner of at least one combustion chamber; e. Combustion of the unified gas streams in the combustion chamber at such high temperatures that undesired, combustible gas portions are removed by oxidation, wherein the thermal energy obtained from the energy content of the exhaust gas during oxidation is directly used for heating the exhaust gases; f. Catalytic purification of the oxidized exhaust gases for reacting remaining impurities in a catalytic purification stage at the outlet of the combustion chamber; g. Introducing cooling air into the combustion chamber for adjusting the temperature required for the catalytic purification in the catalytic purification stage.
A method of operating a receiver for receiving analyte data from a biosensor monitoring an analyte by detecting analyte values, the method comprising - in a receiver, receiving, in successive events separated by intervals of time for which a first interval time is applied, analyte values detected by a biosensor continuously monitoring an analyte, wherein a series of analyte values detected by the biosensor before is received in such event; - receiving a present analyte value in the receiver; - providing a rate of change for the analyte values; - determining a future analyte value based on the present analyte value, the first interval time, and the rate of change; - providing an analyte value range for the analyte values; - setting a second interval time, the second interval time being - shorter than the first interval time, if the future analyte value is outside the analyte value range, and - longer than or equal to the first interval time, if the future analyte value is within the analyte value range; and - in the receiver, receiving following analyte values in intervals of time for which the second interval time is applied, - in a receiver, receiving, in successive events separated by intervals of time for which a first interval time is applied, analyte values detected by a biosensor continuously monitoring an analyte, wherein a series of analyte values detected by the biosensor before is received in such event; - receiving a present analyte value in the receiver; - providing a rate of change for the analyte values; - determining a future analyte value based on the present analyte value, the first interval time, and the rate of change; - providing an analyte value range for the analyte values; - setting a second interval time, the second interval time being - shorter than the first interval time, if the future analyte value is outside the analyte value range, and - longer than or equal to the first interval time, if the future analyte value is within the analyte value range; and - shorter than the first interval time, if the future analyte value is outside the analyte value range, and - longer than or equal to the first interval time, if the future analyte value is within the analyte value range; and - in the receiver, receiving following analyte values in intervals of time for which the second interval time is applied,