mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining a time at which a first device in a frequency-hopping communication network is expected to transmit a data message; generating a first schedule based on the determined time, the first schedule defining a first timeslot during which a second device in the network listens for the data message; setting the duration of the first timeslot based on a predetermined maximum amount of retransmissions necessary for the second device to receive the data message; and overlaying the first schedule on a frequency-hopping schedule for the second device, wherein the frequency-hopping schedule defines second timeslots during which the second device listens for data messages from other devices in the network, and a duration of the first timeslot is greater than respective durations of the second timeslots; wherein: the first device is an energy-constrained device, and the second device is a non-energy-constrained device. determining a time at which a first device in a frequency-hopping communication network is expected to transmit a data message; generating a first schedule based on the determined time, the first schedule defining a first timeslot during which a second device in the network listens for the data message; setting the duration of the first timeslot based on a predetermined maximum amount of retransmissions necessary for the second device to receive the data message; and overlaying the first schedule on a frequency-hopping schedule for the second device, wherein the frequency-hopping schedule defines second timeslots during which the second device listens for data messages from other devices in the network, and a duration of the first timeslot is greater than respective durations of the second timeslots; wherein: the first device is an energy-constrained device, and the second device is a non-energy-constrained device. the first device is an energy-constrained device, and the second device is a non-energy-constrained device.
A detector for optically detecting at least one object, comprising at least one optical sensor, wherein the optical sensor has a sensor region comprising a sensor area, wherein the optical sensor is designed to generate a sensor signal in a manner dependent on an illumination of the sensor region, wherein the sensor signal, given the same total power of the illumination, is dependent on a beam cross section of the illumination on the sensor area, wherein the detector furthermore has at least one evaluation device, wherein the evaluation device is designed to generate at least one item of geometrical information from the sensor signal, in particular at least one item of geometrical information about the illumination and/or the object, characterized in that the optical sensor is furthermore designed in such a way that the sensor signal, given the same total power of the illumination, is dependent on a modulation frequency of a modulation of the illumination, wherein the optical sensor comprises an organic semiconductor detector comprising at least one organic material, wherein the detector furthermore has at least one modulation device for modulating the illumination, wherein the sensor signal is selected from the group consisting of a photocurrent and a photovoltage, the sensor signal being a function of the total power p, of an intensity and of a frequency of modulation of the illumination, wherein the evaluation device is designed to generate the at least one item of geometrical information from the sensor signal by using the dependency of the sensor signal on the geometry of the beam cross section.
Training device for positioning on a base, comprising a main body composed of plastic with a bottom side and a top side, wherein foot elements for positioning on the base are arranged or formed on the bottom side, wherein a stepping surface is arranged or formed on the top side, wherein side walls project in the direction of the base on the bottom side, and wherein the foot elements are arranged in corner regions of the main body so as to space the side walls apart from the base, wherein, in at least one corner region, there is arranged or formed a support web for a positioning head of a foot element, against which support web the positioning head bears at least regionally with a support surface which faces away from the base, characterized in that, in relation to an outwardly projecting and/or outwardly convexly curved annular bead, the support web is set off inwardly, said annular bead passing around the support web and/or the positioning head in an encircling manner and/or in a corner zone which is situated at the outside laterally.
A computer-implemented method comprising: receiving updated map data, the updated map data comprising a plurality of links; identifying all changed or new links of the plurality of links, wherein a changed link is different than a corresponding link in previous map data and wherein a new link does not have a corresponding link in the previous map data, and wherein the previous map data corresponds to a version of the updated map data that precedes the updated map data; determining a tiling of the updated map data; and determining, based on the tiling of the updated map data, that a tile boundary intersects the changed or new links, wherein the tile boundary is the boundary between a first tile and a second tile; wherein the method further comprises: compiling a map update for at least the first tile comprising: the updated map data for the first tile, and the previous map data corresponding to all the changed or new links intersected by the tile boundary for the first tile, wherein the map update for at least the first tile is compiled based on the tiling; and providing the map update for at least the first tile. receiving updated map data, the updated map data comprising a plurality of links; identifying all changed or new links of the plurality of links, wherein a changed link is different than a corresponding link in previous map data and wherein a new link does not have a corresponding link in the previous map data, and wherein the previous map data corresponds to a version of the updated map data that precedes the updated map data; determining a tiling of the updated map data; and determining, based on the tiling of the updated map data, that a tile boundary intersects the changed or new links, wherein the tile boundary is the boundary between a first tile and a second tile; wherein the method further comprises: compiling a map update for at least the first tile comprising: the updated map data for the first tile, and the previous map data corresponding to all the changed or new links intersected by the tile boundary for the first tile, wherein the map update for at least the first tile is compiled based on the tiling; and providing the map update for at least the first tile. compiling a map update for at least the first tile comprising: the updated map data for the first tile, and the previous map data corresponding to all the changed or new links intersected by the tile boundary for the first tile, wherein the map update for at least the first tile is compiled based on the tiling; and providing the map update for at least the first tile.
A system for condensing moisture in a gas stream entering or leaving a bioreactor, the system comprising: a single-use bioreactor configured for growth of mammalian cells, bacteria or yeast; a contact condenser container fluidically coupled to the bioreactor through an exhaust line; a condensate accumulator fluidically coupled to the contact condenser container through at least a first condensate line and a second condensate line; the condensate accumulator further fluidically coupled to the bioreactor through a condensate overflow line; a first condensate control device disposed on the first condensate line and configured to control a flow of condensate leaving the contact condenser container and entering the condensate accumulator; and a second condensate control device disposed on the second condensate line and configured to control a flow of condensate leaving the condensate accumulator to be mixed with the gas stream in a location inside the exhaust line. a single-use bioreactor configured for growth of mammalian cells, bacteria or yeast; a contact condenser container fluidically coupled to the bioreactor through an exhaust line; a condensate accumulator fluidically coupled to the contact condenser container through at least a first condensate line and a second condensate line; the condensate accumulator further fluidically coupled to the bioreactor through a condensate overflow line; a first condensate control device disposed on the first condensate line and configured to control a flow of condensate leaving the contact condenser container and entering the condensate accumulator; and a second condensate control device disposed on the second condensate line and configured to control a flow of condensate leaving the condensate accumulator to be mixed with the gas stream in a location inside the exhaust line.
A method for transmitting a downlink signal by a base station, BS, in a wireless communication system, the method comprising: transmitting, via a Radio Resource Control, RRC, signaling, configuration information related to a plurality of durations of a specific time region; transmitting Downlink Control Information, DCI, for informing whether a downlink signal is transmitted in each of the plurality of durations included in the specific time region; and transmitting the downlink signal based on the DCI, wherein a number of the plurality of durations is M, wherein the plurality of durations include i) one or more first durations in which each of the first durations has a first size and ii) one or more second durations in which each of the second durations has a second size, wherein the first size is defined by Ceil(T/M), the second size is defined by Floor(T/M), where T denotes a number of symbols of the specific time region, and wherein the specific time region includes 14*2^{(u-u ref)}*P symbols, where u is numerology of a serving cell, u ref is numerology for the DCI and P is a period for monitoring the DCI. transmitting, via a Radio Resource Control, RRC, signaling, configuration information related to a plurality of durations of a specific time region; transmitting Downlink Control Information, DCI, for informing whether a downlink signal is transmitted in each of the plurality of durations included in the specific time region; and transmitting the downlink signal based on the DCI, wherein a number of the plurality of durations is M, wherein the plurality of durations include i) one or more first durations in which each of the first durations has a first size and ii) one or more second durations in which each of the second durations has a second size, wherein the first size is defined by Ceil(T/M), the second size is defined by Floor(T/M), where T denotes a number of symbols of the specific time region, and wherein the specific time region includes 14*2^{(u-u ref)}*P symbols, where u is numerology of a serving cell, u ref is numerology for the DCI and P is a period for monitoring the DCI.
A wind turbine generator system for generating electric power from wind power, the system comprising: a conversion unit (21a, 22a, 23a) configured to convert the electric power generated; a first cooling unit (21b, 22b, 23b) configured to cool the conversion unit (21a, 22a, 23a); a wind condition data acquisition unit configured to acquire wind condition data; and a cooling control unit configured to control an operation of the first cooling unit (21b, 22b, 23b); a first temperature detection unit (21c, 22c, 23c) configured to detect a temperature of the conversion unit (21a, 22a, 23a), and wherein the cooling control unit switches ON/OFF the first cooling unit (21b, 22b, 23b) in accordance further with the temperature of the conversion unit (21a, 22a, 23a) detected by the first temperature detection unit (21c, 22c, 23c), characterised in that the wind turbine generator system further comprises a storage unit configured to store a plurality of command patterns of the speed command values used by the cooling control unit to control the rotation speed of the cooling fan of the first cooling unit (21b, 22b, 23b) and in that to allow the first cooling unit (21b, 22b, 23b) to operate, the cooling control unit selects an optimum command pattern in accordance with the wind condition data from among a plurality of the command patterns stored in the storage unit, and controls the rotation speed of the cooling fan in accordance with the selected command pattern. a conversion unit (21a, 22a, 23a) configured to convert the electric power generated; a first cooling unit (21b, 22b, 23b) configured to cool the conversion unit (21a, 22a, 23a); a wind condition data acquisition unit configured to acquire wind condition data; and a cooling control unit configured to control an operation of the first cooling unit (21b, 22b, 23b); a first temperature detection unit (21c, 22c, 23c) configured to detect a temperature of the conversion unit (21a, 22a, 23a), and wherein the cooling control unit switches ON/OFF the first cooling unit (21b, 22b, 23b) in accordance further with the temperature of the conversion unit (21a, 22a, 23a) detected by the first temperature detection unit (21c, 22c, 23c), characterised in that the wind turbine generator system further comprises a storage unit configured to store a plurality of command patterns of the speed command values used by the cooling control unit to control the rotation speed of the cooling fan of the first cooling unit (21b, 22b, 23b) and in that to allow the first cooling unit (21b, 22b, 23b) to operate, the cooling control unit selects an optimum command pattern in accordance with the wind condition data from among a plurality of the command patterns stored in the storage unit, and controls the rotation speed of the cooling fan in accordance with the selected command pattern.
A system comprising a blood vessel authentication apparatus and a finger of a person, wherein the blood vessel authentication apparatus comprises: • a light emitting section (21, 41) configured to emit near-infrared source light in a predetermined direction toward the finger of the person, said finger having an epidermal layer and a deep layer beneath said epidermal layer, said deep layer having blood vessels, said predetermined direction being slanted relative to a normal direction of a target portion of said finger; • an imaging section (24, 423) configured to detect scattered light, which is a portion of said source light that has penetrated the epidermal layer and is scattered by tissue in said deep layer, said tissue in said deep layer scattering light such that less light is detected in regions corresponding to the blood vessels than other regions without the blood vessels; • a shield having a first end and an opposing second end, wherein an opening extends from the first end to the second end through the shield, and the shield is arranged between the imaging section (24, 423) and the finger, so that the shield limits an aperture of the imaging section (24, 423), allows light scattered in said deep layer to reach, via the opening, the imaging section (24, 423), and shields the imaging section (24, 423) from light scattered in a layer of said finger other than said deep layer; and • an authentication section (53, 54, 55) configured to authenticate an identity of the person associated with the finger based on a comparison of the scattered light detected by said imaging section and blood vessel information previously stored. • a light emitting section (21, 41) configured to emit near-infrared source light in a predetermined direction toward the finger of the person, said finger having an epidermal layer and a deep layer beneath said epidermal layer, said deep layer having blood vessels, said predetermined direction being slanted relative to a normal direction of a target portion of said finger; • an imaging section (24, 423) configured to detect scattered light, which is a portion of said source light that has penetrated the epidermal layer and is scattered by tissue in said deep layer, said tissue in said deep layer scattering light such that less light is detected in regions corresponding to the blood vessels than other regions without the blood vessels; • a shield having a first end and an opposing second end, wherein an opening extends from the first end to the second end through the shield, and the shield is arranged between the imaging section (24, 423) and the finger, so that the shield limits an aperture of the imaging section (24, 423), allows light scattered in said deep layer to reach, via the opening, the imaging section (24, 423), and shields the imaging section (24, 423) from light scattered in a layer of said finger other than said deep layer; and • an authentication section (53, 54, 55) configured to authenticate an identity of the person associated with the finger based on a comparison of the scattered light detected by said imaging section and blood vessel information previously stored.
Method for winding fiber webs, particularly partial paper and board webs, in which method partial web rolls are wound in a winding device that comprises at least two winding stations, rider roll units each of which is adapted for loading a pair of rider rolls (31,32) against the partial web roll to be wound, in which method partial webs (W1, W2) are guided to be wound to partial web rolls around cores via a nip between a winding roll and the partial web rolls, in which method the winding position of the partial web rolls to be wound is on the upper circumferential half of a winding roll on the winding stations, characterized in, that in the method the rider rolls (31,32) are moved linearly in direction of the radius of the partial web roll and co-linear with the movement path of the winding chucks on which the partial web roll is supported at ends of its core, whereby the winding chucks move along a linear path, and the partial web rolls are loaded and supported by the rider rolls (31,32) in direction of the center of the partial web roll from the beginning of the winding until the partial web rolls are wound to the end diameter.
A seat misuse alarm device comprising: a base; a seat having a forward facing position and a rearward facing position relative the base; characterized by: an alarm mechanism having a switch; and a switch triggering device triggering the switch to close for making the alarm mechanism send out an alarm when the seat is located at the forward facing position relative to the base characterized in that a first hole is formed at a side of the base, the switch is located in the first hole, a second hole is formed at a side of the seat, the switch triggering device is disposed through the second hole, and with rotation of the seat to the forward facing position relative to the base, the first hole is aligned with the second hole to make an end of the switch triggering device extend into the first hole and then trigger the switch to close. a base; a seat having a forward facing position and a rearward facing position relative the base; characterized by: an alarm mechanism having a switch; and a switch triggering device triggering the switch to close for making the alarm mechanism send out an alarm when the seat is located at the forward facing position relative to the base characterized in that a first hole is formed at a side of the base, the switch is located in the first hole, a second hole is formed at a side of the seat, the switch triggering device is disposed through the second hole, and with rotation of the seat to the forward facing position relative to the base, the first hole is aligned with the second hole to make an end of the switch triggering device extend into the first hole and then trigger the switch to close.
A bending tool for inserting into a tool receptacle, comprising a tool body, a bolt element, which is adjustable therein, for securing the bending tool in the tool receptacle by engaging in a recess disposed therein, an actuating element which is adjustable between a base position corresponding to the locking position of the bolt element and an actuating position corresponding to the unlocking position of the bolt element, and wherein an adjustment of the actuating element in the direction of the actuating position moves the bolt element in the direction of the unlocking position by means of a coupling means wherein the coupling means extends from the actuating element to the bolt element and comes into contact with a transmission surface on the actuating element and a contact surface on the bolt element, and the coupling means is guided in a displaceable manner in the tool body between the actuating element and the bolt element substantially in the spacing direction between the actuating element and the bolt element, characterized in that two actuating surfaces (8, 11) which are accessible from opposite lateral surfaces (9, 10) on the tool body outside the tool receptacle are disposed on the actuating element.
A process for the preparation of a water-in-oil polymer dispersion comprising the steps of (a) preparing a water-in-oil monomer dispersion comprising - water; - an oily substance; - a water-in-oil emulsifier; - a first cationic polymer derived from a monomer mixture comprising one or more cationic (alk)acrylic acid derivatives, and one or more radically polymerizable, ethylenically unsaturated non-ionic monomers, wherein the content of cationic monomers is at most 95 wt.-%, based on the total weight of monomers; - a radically polymerizable cationic monomer; and - optionally, one or more radically polymerizable, ethylenically unsaturated co-monomers; and (b) radically polymerizing the radically polymerizable cationic monomer and the optionally present one or more radically polymerizable, ethylenically unsaturated co-monomers thereby yielding a second cationic polymer. (a) preparing a water-in-oil monomer dispersion comprising - water; - an oily substance; - a water-in-oil emulsifier; - a first cationic polymer derived from a monomer mixture comprising one or more cationic (alk)acrylic acid derivatives, and one or more radically polymerizable, ethylenically unsaturated non-ionic monomers, wherein the content of cationic monomers is at most 95 wt.-%, based on the total weight of monomers; - a radically polymerizable cationic monomer; and - optionally, one or more radically polymerizable, ethylenically unsaturated co-monomers; and - water; - an oily substance; - a water-in-oil emulsifier; - a first cationic polymer derived from a monomer mixture comprising one or more cationic (alk)acrylic acid derivatives, and one or more radically polymerizable, ethylenically unsaturated non-ionic monomers, wherein the content of cationic monomers is at most 95 wt.-%, based on the total weight of monomers; - a radically polymerizable cationic monomer; and - optionally, one or more radically polymerizable, ethylenically unsaturated co-monomers; and (b) radically polymerizing the radically polymerizable cationic monomer and the optionally present one or more radically polymerizable, ethylenically unsaturated co-monomers thereby yielding a second cationic polymer.
A derailleur hanger for placing a hub of a wheel of a bicycle or the like comprising a body including at least a first hole able to receive the end of the hub of a wheel and a second hole forming a coupling eyelet, said body including, at the first hole, a recess emerging on one of the sides of the body and forming a bottom wall perpendicular to the axis of the first hole and a side wall extending parallel to the axis of the hole, said derailleur hanger being characterized in that the bottom wall includes two zones (6a, 6b), a first zone surrounding the first hole and in which the bottom surface extends perpendicular to the axis of said hole and a second zone extending from the first hole toward the second hole and in which the surface of the bottom is inclined relative to the bottom surface of the first zone.