mhurhangee/ep-ind-claims huggingface dataset:
A reflector antenna device (100, 100a, 100b), comprising: a primary radiator (110, 110b) configured to radiate a first radio wave that is a radio wave in a first frequency band and radiate a second radio wave that is a radio wave in a second frequency band lower in frequency than the first frequency band; and a reflector (120, 120a, 120b) having a reflection face that receives the first radio wave and the second radio wave radiated by the primary radiator (110, 110b) and reflects the first radio wave and the second radio wave, characterized in that: the reflection face included in the reflector (120, 120a, 120b) has a first region including a center point of the reflection face and a second region (122, 122b1) that is an outer peripheral region of the first region and is a region provided with a plurality of recesses, and each of the plurality of recesses provided in the second region (122, 122b1) of the reflection face included in the reflector (120, 120a, 120b) allows the first radio wave to enter the recess, restricts the second radio wave from entering the recess, and reflects the first radio wave that has entered the recess on a bottom face of the recess. a primary radiator (110, 110b) configured to radiate a first radio wave that is a radio wave in a first frequency band and radiate a second radio wave that is a radio wave in a second frequency band lower in frequency than the first frequency band; and a reflector (120, 120a, 120b) having a reflection face that receives the first radio wave and the second radio wave radiated by the primary radiator (110, 110b) and reflects the first radio wave and the second radio wave, characterized in that: the reflection face included in the reflector (120, 120a, 120b) has a first region including a center point of the reflection face and a second region (122, 122b1) that is an outer peripheral region of the first region and is a region provided with a plurality of recesses, and each of the plurality of recesses provided in the second region (122, 122b1) of the reflection face included in the reflector (120, 120a, 120b) allows the first radio wave to enter the recess, restricts the second radio wave from entering the recess, and reflects the first radio wave that has entered the recess on a bottom face of the recess. the reflection face included in the reflector (120, 120a, 120b) has a first region including a center point of the reflection face and a second region (122, 122b1) that is an outer peripheral region of the first region and is a region provided with a plurality of recesses, and each of the plurality of recesses provided in the second region (122, 122b1) of the reflection face included in the reflector (120, 120a, 120b) allows the first radio wave to enter the recess, restricts the second radio wave from entering the recess, and reflects the first radio wave that has entered the recess on a bottom face of the recess.
Method for locating a leak in a drinking water supply network, the drinking water supply network comprising at least one water source and one or more electronic water consumption meters (21, 22) on the consumer side, characterized in that a length of a pipe between one of the consumption meters (21, 22) and the leak position is calculated on the basis of a known cross section of the pipe, a temporal temperature curve of the water flowing through said consumption meter and the quantity of water flowing through said consumption meter.
A method comprising: for operation of one or more of a set of functional circuits, setting, for at least the one or more of the set of functional circuits to be operated, one or more programmable slave pulse parameters, relative to a programmable master pulse train; and generating (504; 506) a slave pulse for one of the functional circuits based on the one or more programmable slave pulse parameters corresponding to the one of the functional circuits, relative to the programmable master pulse train. for operation of one or more of a set of functional circuits, setting, for at least the one or more of the set of functional circuits to be operated, one or more programmable slave pulse parameters, relative to a programmable master pulse train; and generating (504; 506) a slave pulse for one of the functional circuits based on the one or more programmable slave pulse parameters corresponding to the one of the functional circuits, relative to the programmable master pulse train.
A respiratory information acquisition device used for a Pressure Swing Adsorption, PSA, type oxygen concentration device that is configured to switch and use multiple adsorption cylinders comprising: a differential pressure sensor where at one end a pressure in an oxygen supply path including both a pressure fluctuation due to a compression/decompression during a generation of concentrated oxygen gas and a respiration pressure of a patient is applied, the differential pressure sensor configured to measure a first pressure for a time span during which the respiration pressure is not applied, and the differential pressure sensor further configured to measure a second pressure with the respiration pressure superimposed on the first pressure, a phase confirmation means configured to align the periodic pressure fluctuations of the first pressure and the second pressure, and a subtraction processing means configured to calculate a difference between the aligned periodic pressure fluctuations of the first pressure and the second pressure. a differential pressure sensor where at one end a pressure in an oxygen supply path including both a pressure fluctuation due to a compression/decompression during a generation of concentrated oxygen gas and a respiration pressure of a patient is applied, the differential pressure sensor configured to measure a first pressure for a time span during which the respiration pressure is not applied, and the differential pressure sensor further configured to measure a second pressure with the respiration pressure superimposed on the first pressure, a phase confirmation means configured to align the periodic pressure fluctuations of the first pressure and the second pressure, and a subtraction processing means configured to calculate a difference between the aligned periodic pressure fluctuations of the first pressure and the second pressure.
A photodetector, comprising: a waveguide: a first reflective region having a first reflectivity; a second reflective region having a second reflectivity larger than the first reflectivity, wherein the waveguide is configured to receive incident light and pass it through the first reflective region into a light absorption region, the light absorption region comprising (a) a cavity layer of a first material positioned between the first and second reflective regions; and (b) a light absorption layer of a second material disposed over the cavity layer so as to absorb a light passed through the first reflective region, reflected between the first and second reflective regions, and evanescently coupled from the cavity layer to the light absorption layer, wherein a one-circulation attenuation coefficient of the light absorption region is configured to be substantially equal to a reflectivity of the first reflective region such that the light resonates between the first and second reflective regions to reach a photonic lock condition in the cavity layer, wherein the waveguide is formed over a substrate, the first reflective region, the second reflective region and the cavity layer of the light absorption region are formed on a same planar surface of the substrate; and the direction of the light is parallel with the surface of the substrate. a first reflective region having a first reflectivity; a second reflective region having a second reflectivity larger than the first reflectivity, wherein the waveguide is configured to receive incident light and pass it through the first reflective region into a light absorption region, the light absorption region comprising (a) a cavity layer of a first material positioned between the first and second reflective regions; and (b) a light absorption layer of a second material disposed over the cavity layer so as to absorb a light passed through the first reflective region, reflected between the first and second reflective regions, and evanescently coupled from the cavity layer to the light absorption layer, wherein a one-circulation attenuation coefficient of the light absorption region is configured to be substantially equal to a reflectivity of the first reflective region such that the light resonates between the first and second reflective regions to reach a photonic lock condition in the cavity layer, wherein the waveguide is formed over a substrate, the first reflective region, the second reflective region and the cavity layer of the light absorption region are formed on a same planar surface of the substrate; and the direction of the light is parallel with the surface of the substrate.
A terry fabric, comprising: - a ground component comprising: - a plurality of warp yarns composed of one of: a plied synthetic yarn, an absorbent yarn; and - a plurality of weft yarns composed of one of: a plied synthetic yarn, an absorbent yarn, wherein the plurality of weft yarns are interwoven with the plurality of warp yarns such that the ground component includes the plied synthetic yarn and the absorbent yarn, and wherein the plied synthetic yarn includes at least two twisted single end yarns, and each of the at least two twisted single end yarns are either a) continuous filament yarns or b) spun synthetic yarns; and - a pile component (60, 160) that projects from the ground component in a direction away from the ground component, the pile component (60, 160) including a plurality of piles (62, 162) that include absorbent pile yarns (64, 164) interwoven with the plurality warp yarns and the plurality of weft yarns, wherein the plied synthetic yarns are adapted to transfer moisture away from the plurality of absorbent pile yarns (64, 164) to the absorbent yarns in the ground component when the piles are exposed to moisture, such that terry fabric has rapid drying characteristics, characterized in that the plied synthetic yarns have one of a Z-twist or an S-twist, and each twisted single end yarn has the other of the Z-twist or the S-twist. - a ground component comprising: - a plurality of warp yarns composed of one of: a plied synthetic yarn, an absorbent yarn; and - a plurality of weft yarns composed of one of: a plied synthetic yarn, an absorbent yarn, wherein the plurality of weft yarns are interwoven with the plurality of warp yarns such that the ground component includes the plied synthetic yarn and the absorbent yarn, and wherein the plied synthetic yarn includes at least two twisted single end yarns, and each of the at least two twisted single end yarns are either a) continuous filament yarns or b) spun synthetic yarns; and - a plurality of warp yarns composed of one of: a plied synthetic yarn, an absorbent yarn; and - a plurality of weft yarns composed of one of: a plied synthetic yarn, an absorbent yarn, wherein the plurality of weft yarns are interwoven with the plurality of warp yarns such that the ground component includes the plied synthetic yarn and the absorbent yarn, and wherein the plied synthetic yarn includes at least two twisted single end yarns, and each of the at least two twisted single end yarns are either a) continuous filament yarns or b) spun synthetic yarns; and - a pile component (60, 160) that projects from the ground component in a direction away from the ground component, the pile component (60, 160) including a plurality of piles (62, 162) that include absorbent pile yarns (64, 164) interwoven with the plurality warp yarns and the plurality of weft yarns, wherein the plied synthetic yarns are adapted to transfer moisture away from the plurality of absorbent pile yarns (64, 164) to the absorbent yarns in the ground component when the piles are exposed to moisture, such that terry fabric has rapid drying characteristics,
A process for making an agglomerate of rubber latex having agglomerate particle size, D, measured in nanometers, comprising (i) polymerizing a material system containing an emulsion of at least one monomer for making a rubber latex in the presence of a alkalipersulfate initiator and the optional presence of salt, to obtain latex having pre-agglomerated particle size, in nanometers, D o, (ii) mixing the latex obtained in (i) with an agglomerating agent, characterised in that the quantity, in pphr, of decomposed alkalipersulfate, W, relates to D o as K=W ∗ (1-1.4S) ∗ D o where S is the amount, in percent relative to the weight of solids in the rubber latex, of the optional salt and K is a constant of 2.3-6.0, with the proviso that is D o at least 85nm and D/ D o is at least 1.5. (i) polymerizing a material system containing an emulsion of at least one monomer for making a rubber latex in the presence of a alkalipersulfate initiator and the optional presence of salt, to obtain latex having pre-agglomerated particle size, in nanometers, D o, (ii) mixing the latex obtained in (i) with an agglomerating agent, characterised in that the quantity, in pphr, of decomposed alkalipersulfate, W, relates to D o as K=W ∗ (1-1.4S) ∗ D o where S is the amount, in percent relative to the weight of solids in the rubber latex, of the optional salt and K is a constant of 2.3-6.0, with the proviso that is D o at least 85nm and D/ D o is at least 1.5.
Architectural assembly composed of wall elements made of concrete filled with conductive particles, with a conductive mesh forming shielding against electromagnetic radiation, where said wall elements consist of a panel 1 of concrete filled with conductive particles, said panel having no conductive mesh for electromagnetic shielding, characterized in that at least one of the faces is provided with a skin 2, 3 consisting of a conductive mesh for electromagnetic shielding, which mesh is embedded or not embedded in a finishing material, said conductive mesh having meshes of less than 30 x 30 millimeters.
A delamination resistant pharmaceutical container comprising a glass composition comprising: SiO 2 in an amount greater than or equal to about 72 mol.% and less than or equal to about 78 mol.%; alkaline earth oxide comprising both MgO and CaO, wherein CaO is present in an amount up to about 1.0 mol.%, and a ratio (CaO (mol.%)/(CaO (mol.%)+MgO (mol.%))) is less than or equal to 0.5; X mol.% Al 2 O 3 wherein X is greater than or equal to about 5 mol.% and less than or equal to about 7 mol.% and; Y mol.% alkali oxide, wherein the alkali oxide comprises Na 2 O in an amount greater than about 8 mol.%; a ratio of a concentration of B 2 O 3 (mol.%) in the glass container to (Y mol.% - X mol.%) is less than or equal to 0.3; and a pharmaceutical composition comprising an active pharmaceutical ingredient, wherein the active pharmaceutical ingredient comprises one of denosumab, darbepoetin alfa, AMG-145, romosozumab, ganitumab, trebananib, brodalumab, or rilotumumab. SiO 2 in an amount greater than or equal to about 72 mol.% and less than or equal to about 78 mol.%; alkaline earth oxide comprising both MgO and CaO, wherein CaO is present in an amount up to about 1.0 mol.%, and a ratio (CaO (mol.%)/(CaO (mol.%)+MgO (mol.%))) is less than or equal to 0.5; X mol.% Al 2 O 3 wherein X is greater than or equal to about 5 mol.% and less than or equal to about 7 mol.% and; Y mol.% alkali oxide, wherein the alkali oxide comprises Na 2 O in an amount greater than about 8 mol.%; a ratio of a concentration of B 2 O 3 (mol.%) in the glass container to (Y mol.% - X mol.%) is less than or equal to 0.3; and a pharmaceutical composition comprising an active pharmaceutical ingredient, wherein the active pharmaceutical ingredient comprises one of denosumab, darbepoetin alfa, AMG-145, romosozumab, ganitumab, trebananib, brodalumab, or rilotumumab.
An ultrasonic endoscope comprising: an insertion unit inserted into an inside of a body; a distal end part body provided to a distal end of the insertion unit and provided with a surgical-tool guide opening; an ultrasonic observation unit provided to the distal end part body; an ultrasonic oscillator provided to the ultrasonic observation unit and including an observation surface through which ultrasonic waves are communicated, side surfaces (80B-80E) adjacent to the observation surface, a bottom surface opposite to the observation surface, a piezoelectric element provided closer to the observation surface, and a backing material provided to the bottom surface of the piezoelectric element; an ultrasonic-oscillator housing part provided to the distal end part body, covering the side surfaces and the bottom surface of the ultrasonic oscillator, and housing the ultrasonic oscillator; and an acoustic lens covering the observation surface of the ultrasonic oscillator, and adhered to the ultrasonic-oscillator housing part, wherein a spacer is provided between at least one of the side surfaces of the ultrasonic oscillator and the ultrasonic-oscillator housing part, and wherein the acoustic lens also covers the spacer, characterized in that the spacer has a uniform thickness in a direction normal to a surface of the spacer, which is in contact with a corresponding one of the side surfaces (96B, 96C) of the ultrasonic oscillator when the ultrasonic oscillator is housed in the ultrasonic-oscillator housing part, and the spacer is elastic in a thickness direction corresponding to the normal direction. an insertion unit inserted into an inside of a body; a distal end part body provided to a distal end of the insertion unit and provided with a surgical-tool guide opening; an ultrasonic observation unit provided to the distal end part body; an ultrasonic oscillator provided to the ultrasonic observation unit and including an observation surface through which ultrasonic waves are communicated, side surfaces (80B-80E) adjacent to the observation surface, a bottom surface opposite to the observation surface, a piezoelectric element provided closer to the observation surface, and a backing material provided to the bottom surface of the piezoelectric element; an ultrasonic-oscillator housing part provided to the distal end part body, covering the side surfaces and the bottom surface of the ultrasonic oscillator, and housing the ultrasonic oscillator; and an acoustic lens covering the observation surface of the ultrasonic oscillator, and adhered to the ultrasonic-oscillator housing part, wherein a spacer is provided between at least one of the side surfaces of the ultrasonic oscillator and the ultrasonic-oscillator housing part, and wherein the acoustic lens also covers the spacer, characterized in that the spacer has a uniform thickness in a direction normal to a surface of the spacer, which is in contact with a corresponding one of the side surfaces (96B, 96C) of the ultrasonic oscillator when the ultrasonic oscillator is housed in the ultrasonic-oscillator housing part, and the spacer is elastic in a thickness direction corresponding to the normal direction.
A method for preparing an HLB adsorbent for solid phase extraction, the method comprising copolymerizing at least one hydrophobic monomer and at least one hydrophilic monomer in the presence of a non-polar porogen and a polar porogen, wherein the hydrophobic monomer comprises divinylbenzene and the hydrophilic monomer comprises acrylonitrile.
A transmission management apparatus (50; 58) for managing transmission among a plurality of transmission terminals (10; 21) connected to a network, the transmission management apparatus (50; 58) comprising: a display information storage unit (5003, 5006) configured to store therein, in association with one another, group identification information for identifying groups to which the transmission terminals (10; 21) each belong, transmission terminal identification information for identifying the transmission terminals (10; 21) belonging to the respective groups, and display information to be displayed on the transmission terminals (10; 21) belonging to the groups; an acquiring unit configured to acquire the group identification information of a certain group and a change instruction for changing the display information; a changing unit (57; 5010) configured to change the display information to be displayed on the transmission terminal (10; 21) belonging to the certain group identified by the group identification information acquired by the acquiring unit in the display information storage unit (5003, 5006) based on the change instruction; and a transmitting unit configured to transmit the display information associated with the certain group in the display information storage unit (5003, 5004; 5006) and changed by the changing unit to the transmission terminals (10; 21) belonging to the certain group, which transmission terminals (10; 21) are identified by the transmission terminals identification information associated with the group identification information of the certain group in the display information storage unit (5003, 5006). a display information storage unit (5003, 5006) configured to store therein, in association with one another, group identification information for identifying groups to which the transmission terminals (10; 21) each belong, transmission terminal identification information for identifying the transmission terminals (10; 21) belonging to the respective groups, and display information to be displayed on the transmission terminals (10; 21) belonging to the groups; an acquiring unit configured to acquire the group identification information of a certain group and a change instruction for changing the display information; a changing unit (57; 5010) configured to change the display information to be displayed on the transmission terminal (10; 21) belonging to the certain group identified by the group identification information acquired by the acquiring unit in the display information storage unit (5003, 5006) based on the change instruction; and a transmitting unit configured to transmit the display information associated with the certain group in the display information storage unit (5003, 5004; 5006) and changed by the changing unit to the transmission terminals (10; 21) belonging to the certain group, which transmission terminals (10; 21) are identified by the transmission terminals identification information associated with the group identification information of the certain group in the display information storage unit (5003, 5006).