mhurhangee/ep-ind-claims huggingface dataset:
A management data communication device configured to manage paths of data communications among plural distribution data communication devices, comprising: a receiving unit configured to receive, each time a predetermined condition is met, from each of plural distribution data communication devices (12, 13) each of which performs at least one of transmission of data to be distributed and reception of the data to be distributed, a communication status data set indicating a communication speed at which the distribution data communication device (12, 13) communicates with each of its communication parties, and a stored data volume data set indicating a volume of data that has been already received and stored out of the data to be distributed by the distribution data communication device (12, 13), a determining unit configured to determine, each time a predetermined condition is met, for each of the plural distribution data communication devices (12, 13), one or more communication parties from among the plural distribution data communication devices (12, 13) based on the communication status data sets and the stored data volume data sets received by the receiving unit in accordance with a predetermined rule, and a transmitting unit configured to transmit to each of the plural distribution data communication devices (12, 13) a communication party data set indicating one or more communication parties of the distribution data communication device (12, 13) determined by the determining unit. a receiving unit configured to receive, each time a predetermined condition is met, from each of plural distribution data communication devices (12, 13) each of which performs at least one of transmission of data to be distributed and reception of the data to be distributed, a communication status data set indicating a communication speed at which the distribution data communication device (12, 13) communicates with each of its communication parties, and a stored data volume data set indicating a volume of data that has been already received and stored out of the data to be distributed by the distribution data communication device (12, 13), a determining unit configured to determine, each time a predetermined condition is met, for each of the plural distribution data communication devices (12, 13), one or more communication parties from among the plural distribution data communication devices (12, 13) based on the communication status data sets and the stored data volume data sets received by the receiving unit in accordance with a predetermined rule, and a transmitting unit configured to transmit to each of the plural distribution data communication devices (12, 13) a communication party data set indicating one or more communication parties of the distribution data communication device (12, 13) determined by the determining unit.
Microwave oven comprising an oven cavity, a microwave generator for generating microwaves and a waveguide for guiding the microwaves to the oven cavity, wherein the waveguide includes a reflector element, the reflector element being fixedly arranged within the waveguide or integrated in the waveguide wall in order to reflect the microwaves into the oven cavity in a distributed manner and wherein the waveguide comprises a feed-in area (4.1) at which the microwave generator is arranged and a coupling area (4.2) at which the microwaves are coupled to the oven cavity, wherein the coupling area (4.2) comprises a cup-like shape, the reflector element is arranged in the coupling area (4.2) and characterized in that the reflector element comprises a plurality of reflection surfaces (5.2) which are slanted with respect to the wall of the waveguide on which the reflector element is located.
An apparatus comprising: means for receiving a digital image captured by a mobile station wherein the digital image represents a precise location of the mobile station; means for accessing a database comprising street maps: means for analysing the digital image by constructing patterns from the image: means for obtaining information wherein the means obtaining information is configured to access the database and compare patterns from the digital image with information within the databases to obtain precise location information of the mobile station: and means for transmitting the obtained precise location information to the mobile station. means for receiving a digital image captured by a mobile station wherein the digital image represents a precise location of the mobile station; means for accessing a database comprising street maps: means for analysing the digital image by constructing patterns from the image: means for obtaining information wherein the means obtaining information is configured to access the database and compare patterns from the digital image with information within the databases to obtain precise location information of the mobile station: and means for transmitting the obtained precise location information to the mobile station. means for obtaining information wherein the means obtaining information is configured to access the database and compare patterns from the digital image with information within the databases to obtain precise location information of the mobile station: and means for transmitting the obtained precise location information to the mobile station.
A multimodal adsorption medium, comprising a polymeric carrier material T to which multimodal ligands of the following structure -G-(CO 2 H) n are covalently bonded via an -X-(C=O) group, wherein X represents -NR-, -O- or -S- and R represents alkyl, alkenyl, aryl, heteroaryl or hydrogen, wherein G represents a branched or unbranched C 3-10 alkenyl group which may contain one or more heteroatoms selected from O, S, N and halogens, and which may optionally contain at least one hydroxyl, carbonyl, carboxyl, carboxylic anhydride or aromatic substituent, and wherein n is 1. wherein X represents -NR-, -O- or -S- and R represents alkyl, alkenyl, aryl, heteroaryl or hydrogen, wherein G represents a branched or unbranched C 3-10 alkenyl group which may contain one or more heteroatoms selected from O, S, N and halogens, and which may optionally contain at least one hydroxyl, carbonyl, carboxyl, carboxylic anhydride or aromatic substituent, and wherein n is 1.
A method for forming an epitaxial structure, comprising: providing a two-dimensional material on a crystal semiconductor material; opening up portions of the two-dimensional material to expose the crystal semiconductor material; and epitaxially growing a structure in the portions opened up in the crystal semiconductor material such that the epitaxial growth is selective to the exposed crystal semiconductor material relative to the two-dimensional material; characterised in that the two dimensional material includes MoS 2 or WS 2. providing a two-dimensional material on a crystal semiconductor material; opening up portions of the two-dimensional material to expose the crystal semiconductor material; and epitaxially growing a structure in the portions opened up in the crystal semiconductor material such that the epitaxial growth is selective to the exposed crystal semiconductor material relative to the two-dimensional material; characterised in that the two dimensional material includes MoS 2 or WS 2.
A heat pump water heater having a refrigerant circuit and a water circuit thermally connected through a refrigerant-water heat exchanger that performs heat exchange between a refrigerant and water, wherein said refrigerant circuit includes a compressor, a four-way valve, said refrigerant-water heat exchanger, expanding means, and a refrigerant-air heat exchanger, forms a water heating circuit composed by sequentially connecting said compressor, said four-way valve, said refrigerant-water heat exchanger, said expanding means, said refrigerant-air heat exchanger, and said four-way valve, and forms a defrosting operation circuit composed by sequentially connecting said compressor, said four-way valve, said refrigerant-air heat exchanger, said expanding means, said refrigerant-water heat exchanger, and said four-way valve by switching of said four-way valve; and said water circuit includes a water inlet pipeline communicating with said refrigerant-water heat exchanger, a water circulating device, a water tank first three-way valve, and a water tank second three-way valve sequentially installed in the water inlet pipeline from the upstream side to the downstream side, the hot water tank, a water outlet pipeline that allows the hot water tank to communicate with said refrigerant-water heat exchanger, a water tank third three-way valve and a water tank fourth three-way valve installed sequentially in the water outlet pipeline from the upstream side to the downstream side, a water tank with which one of inlets/outlets of said water tank first three-way valve, one of inlets/outlets of said water tank second three-way valve, one of inlets/outlets of said water tank third three-way valve, and one of inlets/outlets of said water tank fourth three-way valve communicate via a water tank first inflow pipe, a water tank second outflow pipe, a water tank third inflow pipe, and a water tank fourth outflow pipe, respectively.
An exhaust purification device for an engine, comprising: an ammonia supply system including an ammonia supply injector for supplying ammonia or a substance producing ammonia to a combustion chamber, and a control unit for controlling the ammonia supply injector; and a NOx purification system for purifying NOx included in an exhaust gas, the NOx purification system including a Selective Catalytic Reduction catalyst fulfilling a function for purifying NOx under the presence of ammonia and an exhaust-system ammonia supply system supplying ammonia or a substance producing ammonia to an exhaust passage upstream of an exhaust passage section in which the Selective Catalytic Reduction catalyst is arranged, wherein the ammonia supply system comprises means for supplying the ammonia or the substance producing the ammonia to the combustion chamber in such a manner that a ratio between a NO component and a NO 2 component in the exhaust gas arriving at the exhaust passage section in which the Selective Catalytic Reduction catalyst is arranged is made to a required ratio. an ammonia supply system including an ammonia supply injector for supplying ammonia or a substance producing ammonia to a combustion chamber, and a control unit for controlling the ammonia supply injector; and a NOx purification system for purifying NOx included in an exhaust gas, the NOx purification system including a Selective Catalytic Reduction catalyst fulfilling a function for purifying NOx under the presence of ammonia and an exhaust-system ammonia supply system supplying ammonia or a substance producing ammonia to an exhaust passage upstream of an exhaust passage section in which the Selective Catalytic Reduction catalyst is arranged, wherein the ammonia supply system comprises means for supplying the ammonia or the substance producing the ammonia to the combustion chamber in such a manner that a ratio between a NO component and a NO 2 component in the exhaust gas arriving at the exhaust passage section in which the Selective Catalytic Reduction catalyst is arranged is made to a required ratio.
A hydraulic valve, comprising: a valve body; a bistable valve spool disposed within the valve body and including a first permanent magnet attached to a first spool end of the valve spool and a second permanent magnet attached to a second spool end of the valve spool; a first solenoid positioned adjacent the first spool end; a second solenoid positioned adjacent the second spool end; a first plunger and a first sensor provided in the first solenoid; and a second plunger and a second sensor provided in the second solenoid; wherein in a first mode of operation, the first solenoid is energized to have a first polarity that attracts the first permanent magnet, and the second solenoid is energized to have an opposite polarity that repels the second permanent magnet to enable the first and second solenoids (212, 222) to concurrently push and pull the valve spool between a first position and a second position; wherein in the first position, a second magnetic face of the second permanent magnet pushes the second plunger at a second solenoid face of the second solenoid to cause the second sensor to detect the first position of the valve spool; and wherein in the second position, a first magnetic face of the first permanent magnet pushes the first plunger at a first solenoid face of the first solenoid to cause the first sensor to detect the second position of the valve spool. a valve body; a bistable valve spool disposed within the valve body and including a first permanent magnet attached to a first spool end of the valve spool and a second permanent magnet attached to a second spool end of the valve spool; a first solenoid positioned adjacent the first spool end; a second solenoid positioned adjacent the second spool end; a first plunger and a first sensor provided in the first solenoid; and a second plunger and a second sensor provided in the second solenoid; wherein in a first mode of operation, the first solenoid is energized to have a first polarity that attracts the first permanent magnet, and the second solenoid is energized to have an opposite polarity that repels the second permanent magnet to enable the first and second solenoids (212, 222) to concurrently push and pull the valve spool between a first position and a second position; wherein in the first position, a second magnetic face of the second permanent magnet pushes the second plunger at a second solenoid face of the second solenoid to cause the second sensor to detect the first position of the valve spool; and wherein in the second position, a first magnetic face of the first permanent magnet pushes the first plunger at a first solenoid face of the first solenoid to cause the first sensor to detect the second position of the valve spool.
A surgical instrument, comprising: an elongate channel (1102") configured to operably support a surgical staple cartridge therein; an anvil (1130") comprising a pair of anvil pins received within corresponding channel slots formed in said elongate channel, each said corresponding channel slot extending along a channel axis; and a closure member configured to move in distal and proximal directions relative to said elongate channel and said anvil, said anvil pins each extending into a corresponding closure slot in said closure member, each closure slot being transverse to said channel slots and configured such that when said closure member is moved in said distal direction, said anvil pins are moved along said channel axis and said anvil is simultaneously pivoted toward said elongate channel, characterised in that said of anvil pins defines the pivot axis that is selectively movable along said channel axis, wherein each said closure slot comprises: a proximal closure slot portion extending along a first closure axis that is transverse to said corresponding channel axis; and a distal closure slot portion extending along a second closure axis that is transverse to said channel axis and offset from said first closure axis. an elongate channel (1102") configured to operably support a surgical staple cartridge therein; an anvil (1130") comprising a pair of anvil pins received within corresponding channel slots formed in said elongate channel, each said corresponding channel slot extending along a channel axis; and a closure member configured to move in distal and proximal directions relative to said elongate channel and said anvil, said anvil pins each extending into a corresponding closure slot in said closure member, each closure slot being transverse to said channel slots and configured such that when said closure member is moved in said distal direction, said anvil pins are moved along said channel axis and said anvil is simultaneously pivoted toward said elongate channel, characterised in that said of anvil pins defines the pivot axis that is selectively movable along said channel axis, wherein each said closure slot comprises: a proximal closure slot portion extending along a first closure axis that is transverse to said corresponding channel axis; and a distal closure slot portion extending along a second closure axis that is transverse to said channel axis and offset from said first closure axis. a proximal closure slot portion extending along a first closure axis that is transverse to said corresponding channel axis; and a distal closure slot portion extending along a second closure axis that is transverse to said channel axis and offset from said first closure axis.
A method, comprising: performing, by a processor of a user equipment, in the following also referred to as UE, a 5G Mobility Management, 5GMM, registration procedure with a wireless network after an inter-system change; and detecting, by the processor, a failure of the 5G Mobility Management, 5GMM, registration procedure; characterized by: responsive to the detecting, reattempting, by the processor, the 5G Mobility Management, 5GMM, registration procedure earlier than expiry of a first timer T3511. performing, by a processor of a user equipment, in the following also referred to as UE, a 5G Mobility Management, 5GMM, registration procedure with a wireless network after an inter-system change; and detecting, by the processor, a failure of the 5G Mobility Management, 5GMM, registration procedure; characterized by: responsive to the detecting, reattempting, by the processor, the 5G Mobility Management, 5GMM, registration procedure earlier than expiry of a first timer T3511.
A computer-implemented method for reshaping a component mounted on an assembly tool having a positioning device, the method comprising: receiving a set of as-fabricated measurements of the component; receiving a set of as-mounted measurements of the component, the as-mounted measurements taken at a same position on the component as the as-fabricated measurements; determining a deformation parameter for the component based on the as-mounted measurements and the as-fabricated measurements; determining a set of correction displacements for the positioning device to reshape the component using the deformation parameter; and generating control signals for applying the correction displacements to the positioning device, wherein generating control signals comprises generating only vertical displacement signals and using a weight of the component combined with the vertical displacement signals to reshape the component. receiving a set of as-fabricated measurements of the component; receiving a set of as-mounted measurements of the component, the as-mounted measurements taken at a same position on the component as the as-fabricated measurements; determining a deformation parameter for the component based on the as-mounted measurements and the as-fabricated measurements; determining a set of correction displacements for the positioning device to reshape the component using the deformation parameter; and generating control signals for applying the correction displacements to the positioning device, wherein generating control signals comprises generating only vertical displacement signals and using a weight of the component combined with the vertical displacement signals to reshape the component.
A swellable packer (18,30), comprising: a swellable material which swells when contacted with a swelling fluid; and a barrier comprising a relatively highly crystalline polymer which is substantially impermeable to the swelling fluid, characterized in that the barrier polymer is at least 30% crystalline, wherein the barrier becomes substantially permeable to the swelling fluid when the polymer is heated to a crystallization temperature of the polymer. a swellable material which swells when contacted with a swelling fluid; and a barrier comprising a relatively highly crystalline polymer which is substantially impermeable to the swelling fluid, characterized in that the barrier polymer is at least 30% crystalline, wherein the barrier becomes substantially permeable to the swelling fluid when the polymer is heated to a crystallization temperature of the polymer.
A method comprising: providing, by a display of an electronic device (102; 108), a user interface (800; 900; 1000) including a master volume control, a first individual volume control and a second individual volume control, the first individual volume control having a setting for controlling a volume of a first audio output device (104, 106), the second individual volume control having a setting for controlling a volume of a second audio output device (104, 106), and the master volume control having a setting for controlling the settings of the first and second individual volume controls and thus the volumes of the first and second output devices collectively; receiving a manual adjustment of the setting of the first individual volume control, such that the manually adjusted setting of the first individual volume control exceeds the setting of the master volume control; in response to the received manual adjustment of the setting of the first individual volume control, automatically adjusting the setting of the master volume control to be equal to, or greater than the manually adjusted setting of the first individual volume control, and not adjusting the setting of the second individual volume control while automatically adjusting the setting of the master volume control. providing, by a display of an electronic device (102; 108), a user interface (800; 900; 1000) including a master volume control, a first individual volume control and a second individual volume control, the first individual volume control having a setting for controlling a volume of a first audio output device (104, 106), the second individual volume control having a setting for controlling a volume of a second audio output device (104, 106), and the master volume control having a setting for controlling the settings of the first and second individual volume controls and thus the volumes of the first and second output devices collectively; receiving a manual adjustment of the setting of the first individual volume control, such that the manually adjusted setting of the first individual volume control exceeds the setting of the master volume control; in response to the received manual adjustment of the setting of the first individual volume control, automatically adjusting the setting of the master volume control to be equal to, or greater than the manually adjusted setting of the first individual volume control, and not adjusting the setting of the second individual volume control while automatically adjusting the setting of the master volume control.
Composite cement comprising - a hydraulic cement or a caustic activator, - a hyaloclastite as pozzolan containing 45 - 62 wt.-% SiO 2, 10 - 20 wt.% Al 2 O 3, 6 - 15 wt.-% Fe 2 O 3, 7 - 15 wt.-% CaO, 7-15 wt.-% MgO, 1.5 - 4 wt.% (K 2 O + Na 2 O), and having 0 - 5 wt.-% loss on ignition at 950 °C and ≥ 50 wt.-% X-ray amorphous phase, and - a carbonate filler with an at least bimodal particle size distribution adapted to provide a slope n in a Rosin-Rammler-Sperling-Bennett distribution curve of ≤ 1.15 in the particle size distribution of the composite cement. - a hydraulic cement or a caustic activator, - a hyaloclastite as pozzolan containing 45 - 62 wt.-% SiO 2, 10 - 20 wt.% Al 2 O 3, 6 - 15 wt.-% Fe 2 O 3, 7 - 15 wt.-% CaO, 7-15 wt.-% MgO, 1.5 - 4 wt.% (K 2 O + Na 2 O), and having 0 - 5 wt.-% loss on ignition at 950 °C and ≥ 50 wt.-% X-ray amorphous phase, and - a carbonate filler with an at least bimodal particle size distribution adapted to provide a slope n in a Rosin-Rammler-Sperling-Bennett distribution curve of ≤ 1.15 in the particle size distribution of the composite cement.