mhurhangee/ep-ind-claims huggingface dataset:
A chemical device, comprising: a chemically-sensitive field effect transistor including a floating gate structure comprising a plurality of floating gate conductors electrically coupled to one another; a conductive element overlying and in communication with a sensor plate, which is an uppermost floating gate conductor in the plurality of floating gate conductors, the conductive element wider and thinner than the sensor plate; and a dielectric material defining an opening extending to an upper surface of the conductive element, the upper surface of the conductive element defining a bottom surface of a reaction region (301,302) for the chemical device, wherein the material of the conductive element is different from the material of the uppermost floating gate conductor. a chemically-sensitive field effect transistor including a floating gate structure comprising a plurality of floating gate conductors electrically coupled to one another; a conductive element overlying and in communication with a sensor plate, which is an uppermost floating gate conductor in the plurality of floating gate conductors, the conductive element wider and thinner than the sensor plate; and a dielectric material defining an opening extending to an upper surface of the conductive element, the upper surface of the conductive element defining a bottom surface of a reaction region (301,302) for the chemical device, wherein the material of the conductive element is different from the material of the uppermost floating gate conductor.
A method, performed by a filtering control device, for processing, in a sample adaptive filtering procedure used in High Efficiency Video Coding "HEVC", a first picture, wherein the first picture is reconstructed from video data, the method comprising: obtaining an offset magnitude from the video data, wherein the offset magnitude indicates a magnitude of a sample adaptive offset sao_offset; obtaining an offset sign from the video data, wherein the offset sign indicates a sign of the sample adaptive offset sao_offset, wherein the sample adaptive offset sao_offset is a band offset and/or an edge offset; wherein the sample adaptive offset sao_offset is coded by variable length code or fixed length code or Context-Adaptive Binary Arithmetic Coding "CABAC" and the offset sign and the offset magnitude are coded separately in the video data; wherein a mapping exists between the sample adaptive offset sao_offset and a further sample adaptive offset value SaoOffsetVal, the mapping being: sao_offset = log 2 abs SaoOffsetVal * sign SaoOffsetVal determining the further sample adaptive offset value SaoOffsetVal based on the offset magnitude and the offset sign; and processing, in the sample adaptive filtering procedure, at least a portion of the first picture by applying the further sample adaptive offset value SaoOffsetVal. obtaining an offset magnitude from the video data, wherein the offset magnitude indicates a magnitude of a sample adaptive offset sao_offset; obtaining an offset sign from the video data, wherein the offset sign indicates a sign of the sample adaptive offset sao_offset, wherein the sample adaptive offset sao_offset is a band offset and/or an edge offset; wherein the sample adaptive offset sao_offset is coded by variable length code or fixed length code or Context-Adaptive Binary Arithmetic Coding "CABAC" and the offset sign and the offset magnitude are coded separately in the video data; wherein a mapping exists between the sample adaptive offset sao_offset and a further sample adaptive offset value SaoOffsetVal, the mapping being: sao_offset = log 2 abs SaoOffsetVal * sign SaoOffsetVal wherein the sample adaptive offset sao_offset is a band offset and/or an edge offset; wherein the sample adaptive offset sao_offset is coded by variable length code or fixed length code or Context-Adaptive Binary Arithmetic Coding "CABAC" and the offset sign and the offset magnitude are coded separately in the video data; wherein a mapping exists between the sample adaptive offset sao_offset and a further sample adaptive offset value SaoOffsetVal, the mapping being: sao_offset = log 2 abs SaoOffsetVal * sign SaoOffsetVal determining the further sample adaptive offset value SaoOffsetVal based on the offset magnitude and the offset sign; and processing, in the sample adaptive filtering procedure, at least a portion of the first picture by applying the further sample adaptive offset value SaoOffsetVal.
A method, comprising: maintaining temporally parallel DSL data communication sessions with DSL modems (18 1,..., 18 N) of a group via a set of lines (16 1,..., 16 N); in response to detecting a loss-of-signal event that causes a stop to reception of DSL communications from one of the DSL modems (18 1,..., 18 N) via one of the lines (16 1,..., 16 N), transmitting a substantially reduced average power to the one of the lines (16 1,..., 16 N) and monitoring the one of the lines (16 1,..., 16 N) to determine whether reception of DSL signals has restarted from the one of the DSL modems (18 1,..., 18 N); and resuming the maintaining of the parallel DSL communication sessions in response to the monitoring determining that the reception of DSL signals from the one of the DSL modems (18 1,..., 18 N) has restarted. maintaining temporally parallel DSL data communication sessions with DSL modems (18 1,..., 18 N) of a group via a set of lines (16 1,..., 16 N); in response to detecting a loss-of-signal event that causes a stop to reception of DSL communications from one of the DSL modems (18 1,..., 18 N) via one of the lines (16 1,..., 16 N), transmitting a substantially reduced average power to the one of the lines (16 1,..., 16 N) and monitoring the one of the lines (16 1,..., 16 N) to determine whether reception of DSL signals has restarted from the one of the DSL modems (18 1,..., 18 N); and resuming the maintaining of the parallel DSL communication sessions in response to the monitoring determining that the reception of DSL signals from the one of the DSL modems (18 1,..., 18 N) has restarted.
A hinge assembly having at least two hinged closures for locking a door leaf (10.1) with respect to a door frame (10.2) and for pivoting the door leaf (10.1) with respect to the door frame (10.2), with an actuating device for jointly actuating the hinged closures characterized by a hinge bar, which can be arranged on the door leaf (10.1) and which has multiple mounting points (7.4) for mounting a respective hinged closure.
A pet chew product, characterized by comprising a tubular basic strip, wherein the tubular basic strip is internally provided with a single and hollow axial channel with a polygonal cross section, when the axial channel is squeezed, an upper wall of the axial channel protrudes downwards and is fitted with a corresponding engagement position on a lower wall thereof.
A method of acquiring seismic data comprising: a) determining a non-uniform optimal sampling design by calculating a compressive sensing sampling grid; b) towing a plurality of streamers attached to a vessel, wherein the streamers are spaced apart at non-uniform optimal intervals; c) firing a plurality of shots from one or more seismic sources at non-uniform optimal shot intervals; and d) acquiring seismic data via the plurality of streamers; the method being characterised in that the compressive sensing sampling grid is calculated through the use of randomized greedy algorithms and it minimizes mutual coherence between a sparsity basis S and a sampling operator R, wherein b = RS*x, and wherein b represents acquired seismic data on an irregular grid and x is a sparse representation of the reconstructed seismic data on a finer regular reconstructed grid u, x = Su. a) determining a non-uniform optimal sampling design by calculating a compressive sensing sampling grid; b) towing a plurality of streamers attached to a vessel, wherein the streamers are spaced apart at non-uniform optimal intervals; c) firing a plurality of shots from one or more seismic sources at non-uniform optimal shot intervals; and d) acquiring seismic data via the plurality of streamers; the method being characterised in that the compressive sensing sampling grid is calculated through the use of randomized greedy algorithms and it minimizes mutual coherence between a sparsity basis S and a sampling operator R, wherein b = RS*x, and wherein b represents acquired seismic data on an irregular grid and x is a sparse representation of the reconstructed seismic data on a finer regular reconstructed grid u, x = Su.
Cooking hob device, in particular an induction cooking hob device, having at least one cooking hob unit which has at least one cooking hob plate and at least one heating unit which is arranged underneath the cooking hob plate and is provided to heat at least one cooking utensil placed on the cooking hob plate, and having at least one contact module which is provided to be arranged on at least one side wall of the cooking utensil and/or on at least one lid of the cooking utensil and/or inside the cooking utensil, wherein the contact module has at least one sensor unit which is provided to determine at least one cooking parameter, and having at least one control unit which is integrated into the cooking hob unit and is provided to control and/or regulate at least the heating unit, and having at least one output unit which is provided to output at least the cooking parameter, characterised in that the control unit is provided to monitor the cooking parameter at least during a cooling process after deactivation of the heating unit.
Apparatus for gripping and releasing a tubular (33, 34), the apparatus comprising: an elevator (13, 103, 203) having slips (15, 105, 204) for gripping and releasing the tubular; a spider (12, 102, 201) having slips (14, 104, 202) for gripping and releasing the tubular; and a valve (18, 108, 208) for directly controlling a direction of flow of a supply of pressurised fluid to move the spider slips (14, 104, 205) between a gripping position and a release position; characterised by means for mechanically inhibiting movement of said valve (18, 108, 208) to a position in which the spider slips (14, 104, 202) release the tubular, when the elevator slips (15, 105, 204) are not in a gripping position. an elevator (13, 103, 203) having slips (15, 105, 204) for gripping and releasing the tubular; a spider (12, 102, 201) having slips (14, 104, 202) for gripping and releasing the tubular; and a valve (18, 108, 208) for directly controlling a direction of flow of a supply of pressurised fluid to move the spider slips (14, 104, 205) between a gripping position and a release position; characterised by means for mechanically inhibiting movement of said valve (18, 108, 208) to a position in which the spider slips (14, 104, 202) release the tubular, when the elevator slips (15, 105, 204) are not in a gripping position.
A Czochralski growth system, comprising: a growth chamber comprising a crucible, at least one side wall, a top wall, a pedestal for supporting the crucible, and a pull mechanism for retractably supporting a seed for contacting a melt contained in the crucible; an isolation valve disposed in the at least one side wall of the growth chamber; a feed port positioned in the at least one side wall of the growth chamber; a feed chamber vacuum sealed to the growth chamber through the isolation valve and containing feedstock; and a feeder including: a drop box fixed inside the growth chamber having a sloping bottom for receiving the feedstock, and a spout positioned over the crucible; and a feeder pan that is insertable horizontally into the growth chamber through the isolation valve to supply the feedstock into the drop box located in the growth chamber and removable from the growth chamber into the feed chamber. a growth chamber comprising a crucible, at least one side wall, a top wall, a pedestal for supporting the crucible, and a pull mechanism for retractably supporting a seed for contacting a melt contained in the crucible; an isolation valve disposed in the at least one side wall of the growth chamber; a feed port positioned in the at least one side wall of the growth chamber; a feed chamber vacuum sealed to the growth chamber through the isolation valve and containing feedstock; and a feeder including: a drop box fixed inside the growth chamber having a sloping bottom for receiving the feedstock, and a spout positioned over the crucible; and a feeder pan that is insertable horizontally into the growth chamber through the isolation valve to supply the feedstock into the drop box located in the growth chamber and removable from the growth chamber into the feed chamber. a drop box fixed inside the growth chamber having a sloping bottom for receiving the feedstock, and a spout positioned over the crucible; and a feeder pan that is insertable horizontally into the growth chamber through the isolation valve to supply the feedstock into the drop box located in the growth chamber and removable from the growth chamber into the feed chamber.
An antenna system configured for providing coverage for multiple-input multiple-output, MIMO, communication in mixed type of spaces, the antenna system comprising: - a leaky cable arranged to provide coverage in a first type of space, the leaky cable comprising two ends and wherein the ends of the leaky cable comprise a respective connection device (7a, 7b), - a network node configured for MIMO communication and comprising two antenna ports (8, 9), - each of the two connection devices (7a, 7b) of the leaky cable is connected to a respective antenna port (8, 9) of the network node, - one or more circulators (4 1, 4 2, 4 3), - a distributed antenna system comprising one or more antennas (3 1, 3 2, 3 3, 3 4) and arranged to provide coverage in a second type of space, wherein each of the one or more antennas (3 1, 3 2, 3 3, 3 4) of the distributed antenna system is connected to the leaky cable through the one or more circulators (4 1, 4 2, 4 3), and wherein each antenna (3 1, 3 2, 3 3, 3 4) is mismatched to the leaky cable so that only a configured amount of energy is transmitted/received by each respective antenna (3 1, 3 2, 3 3, 3 4). - a leaky cable arranged to provide coverage in a first type of space, the leaky cable comprising two ends and wherein the ends of the leaky cable comprise a respective connection device (7a, 7b), - a network node configured for MIMO communication and comprising two antenna ports (8, 9), - each of the two connection devices (7a, 7b) of the leaky cable is connected to a respective antenna port (8, 9) of the network node, - one or more circulators (4 1, 4 2, 4 3), - a distributed antenna system comprising one or more antennas (3 1, 3 2, 3 3, 3 4) and arranged to provide coverage in a second type of space, wherein each of the one or more antennas (3 1, 3 2, 3 3, 3 4) of the distributed antenna system is connected to the leaky cable through the one or more circulators (4 1, 4 2, 4 3), and wherein each antenna (3 1, 3 2, 3 3, 3 4) is mismatched to the leaky cable so that only a configured amount of energy is transmitted/received by each respective antenna (3 1, 3 2, 3 3, 3 4).
An electric parking brake system comprising: an electric motor; a linear motion mechanism that converts a rotational movement of a rotor shaft of the electric motor to a linear movement of a slide member to operate a brake; a locking mechanism that fixes a position of the slide member; the electric parking brake system being characterized by further comprising a control device that controls the electric motor and the locking mechanism; a brake load estimation means that estimates an actually acting braking force; and an electric parking brake operation instruction device that is arbitrary operable; wherein the control device automatically executes a parking brake operation when a stop state of the vehicle is detected even if the electric parking brake operation instruction device is not operated; and an automatically applied parking brake force (F 1) at time of the parking brake operation executed when the stop state is detected is set to a value smaller than a normal parking brake force (Fmax) at time of normal parking brake operation by the operation of the parking brake operation instruction device. an electric motor; a linear motion mechanism that converts a rotational movement of a rotor shaft of the electric motor to a linear movement of a slide member to operate a brake; a locking mechanism that fixes a position of the slide member; the electric parking brake system being characterized by further comprising a control device that controls the electric motor and the locking mechanism; a brake load estimation means that estimates an actually acting braking force; and an electric parking brake operation instruction device that is arbitrary operable; wherein the control device automatically executes a parking brake operation when a stop state of the vehicle is detected even if the electric parking brake operation instruction device is not operated; and an automatically applied parking brake force (F 1) at time of the parking brake operation executed when the stop state is detected is set to a value smaller than a normal parking brake force (Fmax) at time of normal parking brake operation by the operation of the parking brake operation instruction device.
A two-component dental elastomeric impression material with dimensional stability and storage durability based on addition curing silicones, wherein one component comprises at least one catalyst, containing: a.) at least one polydimethylsiloxane comprising polyatomic cross-linkable groups, preferably unsaturated cross-linkable groups, b.) at least one polyaklysiloxane with Si-H functionalities, c.) the catalyst for the reaction of a polydimethysiloxane, comprising multiple atomic cross-linkable groups, with a polydimethylsiloxane, comprising Si-H functionalities, d.) one or more fillers, e.) a combination of release agents, comprising i.) at least an alkyl substituted polydimethylsiloxane, in which the alkyl chain is linear or branched, and/or at least an alkyl substituted polydimethylsiloxane, in which the alkyl chain is linear or branched, and partially or completely halogenated, preferably fluorinated, wherein the alkyl-substituted polydimethylsiloxane in the alkyl chain thereof, which can be linear or branched, has at least 8, preferably at least 16 and particularly preferably at least 18 C-atoms, and has a maximum of 30 carbon atoms, preferably a maximum of 23 C-Atoms, and ii.) at least one paraffin; wherein the mass in the mixed state has a consistency of less than or equal to 35 mm, determined according to ISO 4823. a.) at least one polydimethylsiloxane comprising polyatomic cross-linkable groups, preferably unsaturated cross-linkable groups, b.) at least one polyaklysiloxane with Si-H functionalities, c.) the catalyst for the reaction of a polydimethysiloxane, comprising multiple atomic cross-linkable groups, with a polydimethylsiloxane, comprising Si-H functionalities, d.) one or more fillers, e.) a combination of release agents, comprising i.) at least an alkyl substituted polydimethylsiloxane, in which the alkyl chain is linear or branched, and/or at least an alkyl substituted polydimethylsiloxane, in which the alkyl chain is linear or branched, and partially or completely halogenated, preferably fluorinated, wherein the alkyl-substituted polydimethylsiloxane in the alkyl chain thereof, which can be linear or branched, has at least 8, preferably at least 16 and particularly preferably at least 18 C-atoms, and has a maximum of 30 carbon atoms, preferably a maximum of 23 C-Atoms, and ii.) at least one paraffin; i.) at least an alkyl substituted polydimethylsiloxane, in which the alkyl chain is linear or branched, and/or at least an alkyl substituted polydimethylsiloxane, in which the alkyl chain is linear or branched, and partially or completely halogenated, preferably fluorinated, wherein the alkyl-substituted polydimethylsiloxane in the alkyl chain thereof, which can be linear or branched, has at least 8, preferably at least 16 and particularly preferably at least 18 C-atoms, and has a maximum of 30 carbon atoms, preferably a maximum of 23 C-Atoms, and ii.) at least one paraffin;
A method of determining whether a human subject is at increased risk for developing anti-resorptive therapy-associated osteonecrosis of the jaw comprising obtaining the sequence of a portion of nucleic acid collected from the subject to determine whether the subject carries one or more single nucleotide polymorphism in the region of the intron of the human RBMS3 gene on chromosome 3 between position 29954000 and 29955000 selected from SEQ ID NOS:1-18, where the presence of said one or more single nucleotide polymorphism indicates that the subject is at increased risk for developing anti-resorptive therapy-associated osteonecrosis of the jaw, and where at least one single nucleotide polymorphism is selected from the group consisting of rs17024608 (SEQ ID NO:1) wherein A at position 26 is substituted by G; rs382157 (SEQ ID NO:2) wherein A at position 27 is substituted by G; rs9820707 (SEQ ID NO:3) wherein T at position 27 is substituted by C; rs9875937 (SEQ ID NO:4) wherein G at position 27 is substituted by T; rs9876178 (SEQ ID NO:5) wherein C at position 27 is substituted by A; rs13319154 (SEQ ID NO:6) wherein A at position 27 is substituted by T; rs13326291 (SEQ ID NO:7) wherein T at position 27 is substituted by C; rs75830538 (SEQ ID NO:8) wherein T at position 27 is substituted by C; rs114730671 (SEQ ID NO:9) wherein G at position 27 is substituted by T; rs116600197 (SEQ ID NO:10) wherein C at position 27 is substituted by T; rs116863073 (SEQ ID NO:11) wherein T at position 27 is substituted by C; rs118013282 (SEQ ID NO:12) wherein C at position 27 is substituted by T; rs10510628 (SEQ ID NO:13) wherein G at position 27 is substituted by A; rs4599260 (SEQ ID NO:14) wherein T at position 16 is substituted by C; rs10514681 (SEQ ID NO:15) wherein C at position 27 is substituted by T; rs35393422 (SEQ ID NO:16) wherein T at position 27 is deleted; rs79049188 (SEQ ID NO:17) wherein C at position 27 is substituted by T; and rs115136555 (SEQ ID NO:18) wherein A at position 27 is substituted by G.