mhurhangee/ep-ind-claims huggingface dataset:
A label printing apparatus comprising: a cassette receiving bay arranged to receive a print label cassette; and an engagement member movable between a first position in which said engagement member is engaged with said cassette and a second position in which said engagement member is disengaged with said cassette, wherein when said engagement member is engaged with said cassette, said engagement member is moveable to cause the cassette to move between a first position and a second position relative to the cassette receiving bay, and characterised in that when the cassette is in its second position the cassette is retained by the engagement member. a cassette receiving bay arranged to receive a print label cassette; and an engagement member movable between a first position in which said engagement member is engaged with said cassette and a second position in which said engagement member is disengaged with said cassette, wherein when said engagement member is engaged with said cassette, said engagement member is moveable to cause the cassette to move between a first position and a second position relative to the cassette receiving bay, and characterised in that when the cassette is in its second position the cassette is retained by the engagement member.
An ultrasonic diagnostic imaging system for imaging an invasive medical device comprising: an invasive medical device having a fluid path, wherein the fluid path extends to a distal tip of the medical device; a source of microbubble fluid coupled to the fluid path and providing the microbubble fluid for the fluid path; an ultrasound probe (14, 114) for scanning an ultrasonic image field which includes the location of the invasive medical device; and an ultrasound imaging system, coupled to the ultrasound probe (14, 114) characterized in that the ultrasound imaging system is responsive to nonlinear ultrasound signals received by the probe from the microbubbles of the fluid around the distal tip, wherein the ultrasound imaging system comprises a signal separator for separating linear and nonlinear ultrasound signal components from the echo signals received from the ultrasound probe and a display for displaying an image of the microbubble fluid and the distal tip of the invasive medical device on the basis of the separated nonlinear signal components. an invasive medical device having a fluid path, wherein the fluid path extends to a distal tip of the medical device; a source of microbubble fluid coupled to the fluid path and providing the microbubble fluid for the fluid path; an ultrasound probe (14, 114) for scanning an ultrasonic image field which includes the location of the invasive medical device; and an ultrasound imaging system, coupled to the ultrasound probe (14, 114) characterized in that the ultrasound imaging system is responsive to nonlinear ultrasound signals received by the probe from the microbubbles of the fluid around the distal tip, wherein the ultrasound imaging system comprises a signal separator for separating linear and nonlinear ultrasound signal components from the echo signals received from the ultrasound probe and a display for displaying an image of the microbubble fluid and the distal tip of the invasive medical device on the basis of the separated nonlinear signal components.
A single-use capsule for water treatment, the single-use capsule comprising: a capsule body defining an inlet side and an outlet side; and a first cavity located within the capsule body; wherein the first cavity comprises an ion exchange element; wherein the single-use capsule comprises a flat sheet membrane filter arranged within the capsule body; wherein the flat sheet membrane filter has a pore size of 0.2 μm or lower, and wherein the ion exchange element comprises a weak acid and/or strong acid cation exchange material, which is 100% in the hydrogen form. a capsule body defining an inlet side and an outlet side; and a first cavity located within the capsule body; wherein the first cavity comprises an ion exchange element; wherein the single-use capsule comprises a flat sheet membrane filter arranged within the capsule body; wherein the flat sheet membrane filter has a pore size of 0.2 μm or lower, and wherein the ion exchange element comprises a weak acid and/or strong acid cation exchange material, which is 100% in the hydrogen form.
An optical fiber cleaving device comprising a frame provided with cleaving means for cleaving an optical fiber therewith, first and second fiber clamping arrangements configured to hold a fiber to be cleaved on opposite sides of the fiber cleaving means during cleaving of the fiber, first securing means configured to removably secure said first clamping arrangement to the frame, and second securing means (8, 8') configured to removably secure said second clamping arrangement to the frame, wherein said second clamping arrangement has two members (9, 10) provided with plane surfaces (11, 12) facing each other, at least part of said members (9, 10) being movable with respect to each other between at least a first closed clamping position enabling securing of a fiber therebetween and a second open position allowing a fiber to be inserted in or removed from the second clamping arrangement, characterized in that said two members (9, 10) are elongated members (9, 10) extending substantially parallel to each other in said closed clamping position, and that said two members (9, 10) are interconnected through a hinge portion in such a way that when two ends (14a, 14b) of said two members (9, 10) facing each other are moved towards each other the opposite two ends (15a, 15b) are separated, and reverse.
A centrifugal pump for pumping a fluid, the centrifugal pump comprising a casing (11, 12) in which an impeller is arranged, the impeller having a back side facing a back plate of the centrifugal pump, wherein a gap is formed between the back side and the back plate, at the back side of the impeller, the impeller having one or more vanes for pumping the fluid, and a connector that extends from the impeller and through the back plate of the centrifugal pump, for connection of the impeller to a drive mechanism for rotating the impeller, characterised in that the back side of the impeller comprises a segmented scraper for scraping from the back plate material that has deposited from the fluid, the segmented scraper comprising multiple protrusions, wherein at least two (104, 105) of the multiple protrusions are arranged at various radial distances (R4, R5) from a centre of the impeller, each protrusion of the multiple protrusions is facing the back plate, and an aggregated radial extension of the protrusions equals a radius of the impeller within an interval of ± 10%, ± 25% or even up to ± 40%.
A mobile communication device, configured in accordance with a Long Term Evolution communications technology, comprising an RF transceiver and a baseband processing circuit adapted to interact with the RF transceiver to transmit and receive radio signals on a communication network, the baseband processing circuit configured to: obtain a plurality of channel quality metrics for a plurality of cells; assign a plurality of cell measurement priority rankings to the plurality of cells based on the plurality of channel quality metrics; identify one or more undetectable cells of the plurality of cells as undetectable based on the plurality of channel quality metrics; identify one or more detectable cells of the plurality of cells as detectable based on the plurality of channel quality metrics; assign one or more of the detectable cells having higher respective channel quality metrics a lower cell measurement priority ranking than one or more of the detectable cells having lower respective channel quality metrics; based on the plurality of cell measurement priority rankings, select one or more target cells of the plurality of cells to measure during one or more Positioning Reference Signal, PRS, occasions to obtain a plurality of Reference Signal Time Difference, RSTD, measurements; ensure that cells with a higher measurement priority ranking are measured more often than cells with a lower measurement priority ranking; and report the plurality of RSTD measurements to a communication network. obtain a plurality of channel quality metrics for a plurality of cells; assign a plurality of cell measurement priority rankings to the plurality of cells based on the plurality of channel quality metrics; identify one or more undetectable cells of the plurality of cells as undetectable based on the plurality of channel quality metrics; identify one or more detectable cells of the plurality of cells as detectable based on the plurality of channel quality metrics; assign one or more of the detectable cells having higher respective channel quality metrics a lower cell measurement priority ranking than one or more of the detectable cells having lower respective channel quality metrics; based on the plurality of cell measurement priority rankings, select one or more target cells of the plurality of cells to measure during one or more Positioning Reference Signal, PRS, occasions to obtain a plurality of Reference Signal Time Difference, RSTD, measurements; ensure that cells with a higher measurement priority ranking are measured more often than cells with a lower measurement priority ranking; and report the plurality of RSTD measurements to a communication network.
Device for attaching glasses comprising an elongate element into which are placed means for fastening to garments and means (3, 3') for attaching a glasses temple characterised in that said means for attaching a temple (3, 3') are rings configured so that a glasses temple can be inserted through them.
A communication control program executed by a computer of an information processing apparatus having communication functionality, the communication control program causing the computer to function as: transmission data generation means (31, S56) for generating transmission data which includes a plurality of pieces of data, each having different destined information processing apparatus destinations; and transmission means (31, S56) for transmitting in one frame, the transmission data which includes the plurality of pieces of data, each piece of data capable of having a different destined information processing apparatus destination address information, in either one of a broadcast fashion and a multicast fashion to other information processing apparatuses. transmission data generation means (31, S56) for generating transmission data which includes a plurality of pieces of data, each having different destined information processing apparatus destinations; and transmission means (31, S56) for transmitting in one frame, the transmission data which includes the plurality of pieces of data, each piece of data capable of having a different destined information processing apparatus destination address information, in either one of a broadcast fashion and a multicast fashion to other information processing apparatuses.
A method of powder coating a heat-sensitive item having an edge, the method including: sealing the edge against moisture loss from the item; applying powder to a surface of the item; heating the surface in a melting stage for between about 60 seconds and about 90 seconds such that the surface has a surface temperature that reaches a maximum that is above a curing temperature to melt the powder; and heating the surface in a curing stage to maintain the surface temperature at the curing temperature for between about 120 seconds and about 180 seconds to cure the powder. sealing the edge against moisture loss from the item; applying powder to a surface of the item; heating the surface in a melting stage for between about 60 seconds and about 90 seconds such that the surface has a surface temperature that reaches a maximum that is above a curing temperature to melt the powder; and heating the surface in a curing stage to maintain the surface temperature at the curing temperature for between about 120 seconds and about 180 seconds to cure the powder.
A method for cleaning a semiconductor wafer (1010; 17010) comprising features of patterned structures, the method comprising: applying liquid (1032; 17070) on the semiconductor wafer (1010; 17010); controlling, based on a timer, a power supply of a transducer to deliver acoustic energy to the liquid (1032; 17070) at a first frequency and a first power level (P 1) for a predetermined first time period; controlling, based on the timer, the power supply of the transducer either to deliver acoustic energy to the liquid (1032; 17070) at a second frequency and a second power level (P 2) for a predetermined second time period or not to deliver acoustic energy to the liquid (1032; 17070) in the second time period; wherein the first and second time periods are alternately applied one after another for a predetermined number of cycles, wherein the first and second time periods, the first and second power levels (P 1, P 2), and the first and second frequencies are determined such that no feature is damaged as a result of delivering the acoustic energy, characterized in that the first time period is shorter than the period after which the temperature inside bubble attains an implosion temperature, and the second time period is longer than the period after which the temperature inside bubble falls down to a temperature much lower than the implosion temperature. applying liquid (1032; 17070) on the semiconductor wafer (1010; 17010); controlling, based on a timer, a power supply of a transducer to deliver acoustic energy to the liquid (1032; 17070) at a first frequency and a first power level (P 1) for a predetermined first time period; controlling, based on the timer, the power supply of the transducer either to deliver acoustic energy to the liquid (1032; 17070) at a second frequency and a second power level (P 2) for a predetermined second time period or not to deliver acoustic energy to the liquid (1032; 17070) in the second time period; wherein the first and second time periods are alternately applied one after another for a predetermined number of cycles, wherein the first and second time periods, the first and second power levels (P 1, P 2), and the first and second frequencies are determined such that no feature is damaged as a result of delivering the acoustic energy, characterized in that the first time period is shorter than the period after which the temperature inside bubble attains an implosion temperature, and the second time period is longer than the period after which the temperature inside bubble falls down to a temperature much lower than the implosion temperature.
A calcined dehydrogenation catalyst composition comprising gallium oxide, present in the composition in an amount within the range of 0.1 wt.% to 30 wt.%, calculated as Ga 2 O 3 on a calcined basis; cerium oxide, present in the composition in an amount within the range of 0.1 wt.% to 15 wt.%, calculated as CeO 2 on a calcined basis; a promoter M1 selected from platinum, iridium, lanthanum, or a mixture thereof, present in the composition in an amount within the range of 0.005 wt.% to 4 wt.%, calculated as oxide on a calcined basis; a promoter M2 selected from the group 1 elements, present in the composition in an amount within the range of 0.05 wt.% to 3 wt.%, calculated as oxide on a calcined basis; a promotor M3 selected from Ca, Sr, Ba, Fe, present in the composition in an amount within the range of 0.05 wt.% to 10 wt.%, calculated as oxide on a calcined basis, and a support S1 selected from alumina, silica, zirconia, titania, or a mixture thereof, present in the composition in an amount within the range of 60 wt.% to 99 wt.%, calculated as oxide on a calcined basis. gallium oxide, present in the composition in an amount within the range of 0.1 wt.% to 30 wt.%, calculated as Ga 2 O 3 on a calcined basis; cerium oxide, present in the composition in an amount within the range of 0.1 wt.% to 15 wt.%, calculated as CeO 2 on a calcined basis; a promoter M1 selected from platinum, iridium, lanthanum, or a mixture thereof, present in the composition in an amount within the range of 0.005 wt.% to 4 wt.%, calculated as oxide on a calcined basis; a promoter M2 selected from the group 1 elements, present in the composition in an amount within the range of 0.05 wt.% to 3 wt.%, calculated as oxide on a calcined basis; a promotor M3 selected from Ca, Sr, Ba, Fe, present in the composition in an amount within the range of 0.05 wt.% to 10 wt.%, calculated as oxide on a calcined basis, and a support S1 selected from alumina, silica, zirconia, titania, or a mixture thereof, present in the composition in an amount within the range of 60 wt.% to 99 wt.%, calculated as oxide on a calcined basis.
Fieldbus communication module in industrial process automation technology having - a fieldbus connection for connection to a higher-order automation system via a fieldbus and having at least - one first interface for connection to a first terminal device via a connecting line on the one hand embodied for data exchange with the higher-order automation system via the fieldbus and on the other hand embodied for data exchange with the first terminal device via the first interface, wherein the at least first interface is embodied as a point-to-point communication interface having - a connection means for converting data according to a protocol of the fieldbus into data according to a protocol for the at least first interface and vice versa, characterised by a mapping means which is embodied to map the at least first interface to a plurality of channels (11,12,13,14), wherein a channel number is assigned to each channel, furthermore having an assignment means which is embodied to analyse an incoming message from the terminal device via the at least first interface and to assign an identification number included in the message to the relevant channel number, wherein the connecting means is furthermore embodied to forward the message with the channel number corresponding to the identification number to the higher-order automation system, wherein the mapping means has a configuration unit which in turn is connected to the connecting means, and is furthermore embodied such that it can be parameterized with regard to the channel mapping via the fieldbus using a configuration tool, wherein the fieldbus communication module is embodied such that terminal devices connected to said communication module can be operated, wherein such a terminal device has a first sub terminal device and a second sub terminal device, wherein the terminal device also has a terminal device configuration unit for configuring the sub terminal devices (51,52) with regard to an identification number. - a fieldbus connection for connection to a higher-order automation system via a fieldbus and having at least - one first interface for connection to a first terminal device via a connecting line on the one hand embodied for data exchange with the higher-order automation system via the fieldbus and on the other hand embodied for data exchange with the first terminal device via the first interface, wherein the at least first interface is embodied as a point-to-point communication interface having - a connection means for converting data according to a protocol of the fieldbus into data according to a protocol for the at least first interface and vice versa,
A silicon substrate of a solar cell, the silicon substrate comprising a composition for solar cell electrodes, wherein the silicon substrate is formed with at least 5 raised portions having a cross-sectional height (h) of 50 nm or more per 5 μm length, wherein the composition is applied on the silicon substrate to form the electrode and is deposited on the silicon substrate area formed with the raised portions, characterized in that the composition has a water contact angle of 15° to 60°,and wherein the water contact angle of the composition is measured by dropping distilled water on the surface of a film of the composition and measuring an angle between the tangent of the water and surface of the film at their junction.
A composition for fermented soybean products comprising a fermentation product in which a carbohydrate raw material is fermented with at least one microorganism selected from C. utilis, S. fragilis, S. lactis, S. pombe, and Z. rouxii, wherein the fermentation product comprises alcohol in an amount of 0.01 v/v% to 4.0 v/v%%; wherein the carbohydrate raw material comprises: (i) wheat flour, as a first carbohydrate raw material; and (ii) at least one selected from the group consisting of wheat rice, whole wheat, quinoa, and defatted soy flour, as a second carbohydrate raw material; wherein the second carbohydrate raw material is comprised of 10 to 50 parts by weight based on 100 parts by weight of the first carbohydrate raw material. wherein the carbohydrate raw material comprises: (i) wheat flour, as a first carbohydrate raw material; and (ii) at least one selected from the group consisting of wheat rice, whole wheat, quinoa, and defatted soy flour, as a second carbohydrate raw material; wherein the second carbohydrate raw material is comprised of 10 to 50 parts by weight based on 100 parts by weight of the first carbohydrate raw material.
An aqueous emulsion solution comprising a polymer I and a polymer II mixed together therein, wherein the polymer I is an A-B block copolymer formed from 90 mass% or more of a methacrylate-based monomer and satisfying the following requirements to: a polymer block A is water-insoluble and has a number average molecular weight of 1000 to 10000 and a polydispersity index (weight average molecular weight/number average molecular weight) of 1.5 or less; a polymer block B is synthesized using, as a polymer block-forming component, a monomer comprising at least methacrylic acid and has an acid value of 30 to 250 mgKOH/g; and the A-B block copolymer comprising the polymer blocks has a number average molecular weight of 5000 to 20000, a content of the polymer block A of 5 to 60 mass% in the A-B block copolymer, and a polydispersity index (weight average molecular weight/number average molecular weight) of 1.6 or less, the A-B block copolymer being neutralized with an alkali, the polymer II is a polymer obtained by polymerizing a monomer comprising at least a hydrophobic addition polymerizable monomer and having a glass transition temperature of 70°C or lower, which glass transition temperature is determined by calculation as disclosed in the description, wherein the emulsion is obtainable by preparing an aqueous solution of the polymer I by neutralizing, with said alkali, and forming the polymer II by adding said monomer comprising a hydrophobic addition polymerizable monomer to the aqueous solution and conducting polymerization, and a mass ratio of the polymer I and the polymer II is 5 to 80:95 to 20. a polymer block A is water-insoluble and has a number average molecular weight of 1000 to 10000 and a polydispersity index (weight average molecular weight/number average molecular weight) of 1.5 or less; a polymer block B is synthesized using, as a polymer block-forming component, a monomer comprising at least methacrylic acid and has an acid value of 30 to 250 mgKOH/g; and the A-B block copolymer comprising the polymer blocks has a number average molecular weight of 5000 to 20000, a content of the polymer block A of 5 to 60 mass% in the A-B block copolymer, and a polydispersity index (weight average molecular weight/number average molecular weight) of 1.6 or less, the polymer II is a polymer obtained by polymerizing a monomer comprising at least a hydrophobic addition polymerizable monomer and having a glass transition temperature of 70°C or lower, which glass transition temperature is determined by calculation as disclosed in the description, wherein the emulsion is obtainable by preparing an aqueous solution of the polymer I by neutralizing, with said alkali, and forming the polymer II by adding said monomer comprising a hydrophobic addition polymerizable monomer to the aqueous solution and conducting polymerization, and a mass ratio of the polymer I and the polymer II is 5 to 80:95 to 20.