mhurhangee/ep-ind-claims huggingface dataset:
A titanate luminescent material having the following chemical formula: Ca 1-x Ti 1-y O 3:Pr x,R y @TiO 2 @M z; wherein @ represents coating, Pr and R are doped in Ca 1-x Ti 1-y O 3, M forms a core of the titanate luminescent material, TiO 2 forms an intermediate shell of the titanate luminescent material; Ca 1-x Ti 1-y O 3:Pr x,R y, forms an outer shell of the titanate luminescent material; R is at least one selected from the group consisting of Al and Ga, and M is at least one nanoparticle selected from the group consisting of Ag, Au, Pt, Pd and Cu; 0<x≤0.01, 0<y≤0.20, z is a molar ratio between M and Ti in the titanate luminescent material, 0<z≤1×10 -2.
A method for assembling a structure from preforms including discrete preforms and one or more large preform, each preform comprising unhardened fiber-reinforced material, the method comprising: moving a mandrel in a process direction relative to a placement station that comprises multiple pick-and-place machines; identifying a tray that stores the one or more large preforms and the discrete preforms, the discrete preforms arranged for placement at locations in which a frame is to be installed relative to the large preforms; placing a strong back at the tray via at least one of the PNP machines; applying vacuum pressure to hold the one or more large preforms and the discrete preforms in contact with the strong back; transporting the one or more large preforms and the discrete preforms to the mandrel via the at least one PNP machine while maintaining an arrangement of the one or more large preforms and the discrete preforms; and placing the one or more large preforms and the discrete preforms onto the mandrel. moving a mandrel in a process direction relative to a placement station that comprises multiple pick-and-place machines; identifying a tray that stores the one or more large preforms and the discrete preforms, the discrete preforms arranged for placement at locations in which a frame is to be installed relative to the large preforms; placing a strong back at the tray via at least one of the PNP machines; applying vacuum pressure to hold the one or more large preforms and the discrete preforms in contact with the strong back; transporting the one or more large preforms and the discrete preforms to the mandrel via the at least one PNP machine while maintaining an arrangement of the one or more large preforms and the discrete preforms; and placing the one or more large preforms and the discrete preforms onto the mandrel.
Housing for household appliances such as a tumble dryer, a washing machine or the like, which, in its basic form, comprises a base module, a front wall, side walls connected by means of a crossbeam, and a rear wall, characterised in that, in order to construct the housing without a frame, the rear wall, in a horizontally and vertically oriented preadjustment, can be positioned, by means of an opening, on a pin which is integrally formed on the base module, and fixing elements which can be accessed from the outside are provided between the base module and the rear wall, which fixing elements fix the rear wall to the base module in a locked fixing position transversely to the horizontal and vertical orientation of the rear wall, and each of the fixing means (6.1) and (6.2) is provided in the region of the support feet (7.1) and (7.2) arranged on the base module, the individual fixing means (6.1, 6.2) consisting of an eccentric sleeve which is rotatably mounted on a guide pin integrally formed on the base module, and a handle being integrally formed on the eccentric sleeve for rotation, which handle can be used as a marking tag for the eccentric position.
Respiratory therapy apparatus including a vibratory PEP therapy device including a valve (11, 12) that is opened and closed by breathing through the device such as to produce an oscillating resistance to breathing through the device, characterised in that the apparatus includes a sensor responsive to acoustic pressure waves transmitted through air caused by movement of the valve, that the sensor is arranged to provide a signal indicative of use of the device, and that the sensor is separate from the device but placed close to it to receive the acoustic pressure waves transmitted from the device through air to the sensor
Barn facility for livestock, having space in which animals that are kept in the barn reside, and a ventilation system by means of which air is discharged from the barn space, and a waste air treatment device by means of which substances, for example dust and gases, found in the waste air are filtered out, having at least one first filter element to which a washing liquid from a washing liquid circuit is able to be applied, wherein - the waste air treatment device has at least one first space and a second space separated from the first space, wherein the first filter element is arranged in the first space, - a washing liquid line (19; 19a, b) extends from the first filter element into the second space, is closed off in a fluid-tight manner from the second space, and leads into a washing liquid container which is able to be closed off in a fluid-tight manner from the second space and to which a pump for pumping the washing liquid through the washing liquid circuit is assigned, characterized in that a belt screen is arranged in the washing liquid circuit downstream of the first filter element and upstream of the washing liquid container, said belt screen being set up to separate coarse materials, for example feathers, from the washing liquid, wherein preferably the belt screen is in the form of a conveyor belt and is set up to be driven during plant operation, wherein the barn facility has a second filter element which is arranged in the first space in a manner spaced apart from the first filter element and is able to be wetted by means of a fresh water supply in order to prevent the second filter element from drying out. - the waste air treatment device has at least one first space and a second space separated from the first space, wherein the first filter element is arranged in the first space, - a washing liquid line (19; 19a, b) extends from the first filter element into the second space, is closed off in a fluid-tight manner from the second space, and leads into a washing liquid container which is able to be closed off in a fluid-tight manner from the second space and to which a pump for pumping the washing liquid through the washing liquid circuit is assigned, characterized in that a belt screen is arranged in the washing liquid circuit downstream of the first filter element and upstream of the washing liquid container, said belt screen being set up to separate coarse materials, for example feathers, from the washing liquid, wherein preferably the belt screen is in the form of a conveyor belt and is set up to be driven during plant operation, wherein the barn facility has a second filter element which is arranged in the first space in a manner spaced apart from the first filter element and is able to be wetted by means of a fresh water supply in order to prevent the second filter element from drying out.
A method performed by a terminal in a communication system, the method comprising: receiving first rate matching resource information and second rate matching resource information via higher layer signaling, the first rate matching resource information and the second rate matching resource information being associated with a cell-specific reference signal, CRS; in case that a first scheme for a rate matching is performed based on information indicating the first scheme for the rate matching is to be performed received from a base station: receiving a first physical downlink shared channel, PDSCH, or a second PDSCH, wherein a resource indicated by the first rate matching resource information is not used to receive the first PDSCH, and a resource indicated by the second rate matching resource information is not used to receive the second PDSCH; and in case that a second scheme for the rate matching is to be performed: receiving a PDSCH, wherein the resources indicated by the first rate matching resource information and the second rate matching resource information are not used to receive the PDSCH. receiving first rate matching resource information and second rate matching resource information via higher layer signaling, the first rate matching resource information and the second rate matching resource information being associated with a cell-specific reference signal, CRS; in case that a first scheme for a rate matching is performed based on information indicating the first scheme for the rate matching is to be performed received from a base station: receiving a first physical downlink shared channel, PDSCH, or a second PDSCH, wherein a resource indicated by the first rate matching resource information is not used to receive the first PDSCH, and a resource indicated by the second rate matching resource information is not used to receive the second PDSCH; and in case that a second scheme for the rate matching is to be performed: receiving a PDSCH, wherein the resources indicated by the first rate matching resource information and the second rate matching resource information are not used to receive the PDSCH.
An elastic wave device making use of a shear-horizontal plate wave propagating in LiNbO 3 substrates, comprising: a LiNbO 3 substrate; IDT electrodes placed on at least one surface of the LiNbO 3 substrate; and a support on which the LiNbO 3 substrate is placed such that the support is located outside a region provided with the IDT electrodes and supports the LiNbO 3 substrate, wherein θ of the Euler angles (0°, θ, 0°) of the LiNbO 3 substrate ranges from 92° to 138° and the thickness of the LiNbO 3 substrate ranges from 0.05λ to 0.25λ, where λ is a wavelength of the shear-horizontal plate wave determined by a pitch of electrode fingers of the IDT electrodes; and wherein the IDT electrodes are made of a metal containing one of metals shown in Table 1 below as a major component and have a thickness within a range specified in Table 1 depending on the type of the metal: [Table 1] Thickness of IDT electrode Pt More than 0 to 0.083λ or less Au More than 0 to 0.055λ or less Cu More than 0 to 0.11λ or less Ni More than 0 to 0.16λ or less Al More than 0 to 0.135λ or less a LiNbO 3 substrate; IDT electrodes placed on at least one surface of the LiNbO 3 substrate; and a support on which the LiNbO 3 substrate is placed such that the support is located outside a region provided with the IDT electrodes and supports the LiNbO 3 substrate, wherein θ of the Euler angles (0°, θ, 0°) of the LiNbO 3 substrate ranges from 92° to 138° and the thickness of the LiNbO 3 substrate ranges from 0.05λ to 0.25λ, where λ is a wavelength of the shear-horizontal plate wave determined by a pitch of electrode fingers of the IDT electrodes; and wherein the IDT electrodes are made of a metal containing one of metals shown in Table 1 below as a major component and have a thickness within a range specified in Table 1 depending on the type of the metal: [Table 1] Thickness of IDT electrode Pt More than 0 to 0.083λ or less Au More than 0 to 0.055λ or less Cu More than 0 to 0.11λ or less Ni More than 0 to 0.16λ or less Al More than 0 to 0.135λ or less
An apparatus for satellite communication, the apparatus comprising: an interface configured to receive at least one frame and to remove a first header from the at least one frame to produce at least one stripped frame; a modulator configured to: associate, based on a carrier identifier included in the at least one stripped frame, an adaptive coding and modulation tagged frame included in the at least one stripped frame with a carrier corresponding to the carrier identifier; extract a baseband frame included in the ACM tagged frame; and modulate the baseband frame on to the carrier to generate a modulated signal; a filter configured to generate, based on the modulated signal, a filtered baseband signal; and a transmitter configured to transmit a radio frequency signal corresponding to the filtered baseband signal. an interface configured to receive at least one frame and to remove a first header from the at least one frame to produce at least one stripped frame; a modulator configured to: associate, based on a carrier identifier included in the at least one stripped frame, an adaptive coding and modulation tagged frame included in the at least one stripped frame with a carrier corresponding to the carrier identifier; extract a baseband frame included in the ACM tagged frame; and modulate the baseband frame on to the carrier to generate a modulated signal; associate, based on a carrier identifier included in the at least one stripped frame, an adaptive coding and modulation tagged frame included in the at least one stripped frame with a carrier corresponding to the carrier identifier; extract a baseband frame included in the ACM tagged frame; and modulate the baseband frame on to the carrier to generate a modulated signal; a filter configured to generate, based on the modulated signal, a filtered baseband signal; and a transmitter configured to transmit a radio frequency signal corresponding to the filtered baseband signal.
A paper roll production apparatus comprising: a first sheet-forming machine and a second sheet-forming machine arranged for forming paper stock into a sheet and for dewatering the paper stock; a drying machine arranged for drying the paper stock dewatered by the first or second sheet-forming machine to form a dry paper material; a switching mechanism part arranged for switching to feed, into the drying machine, the paper stock dewatered by the first sheet-forming machine or the paper stock dewatered by the second sheet-forming machine; and a winder arranged for winding up the dry paper material provided by the drying machine to form a paper roll, wherein the first sheet-forming machine is arranged to operate at a sheet-forming speed at which a fiber orientation of the paper stock is maintained, the second sheet-forming machine is arranged to operate at a sheet-forming speed faster than the sheet-forming speed of the first sheet-forming machine, and the winder is arranged to wind up the dry paper material at a speed corresponding to the sheet-forming speed of the first sheet-forming machine or to the sheet-forming speed of the second sheet-forming machine to form the paper roll. a first sheet-forming machine and a second sheet-forming machine arranged for forming paper stock into a sheet and for dewatering the paper stock; a drying machine arranged for drying the paper stock dewatered by the first or second sheet-forming machine to form a dry paper material; a switching mechanism part arranged for switching to feed, into the drying machine, the paper stock dewatered by the first sheet-forming machine or the paper stock dewatered by the second sheet-forming machine; and a winder arranged for winding up the dry paper material provided by the drying machine to form a paper roll, wherein the first sheet-forming machine is arranged to operate at a sheet-forming speed at which a fiber orientation of the paper stock is maintained, the second sheet-forming machine is arranged to operate at a sheet-forming speed faster than the sheet-forming speed of the first sheet-forming machine, and the winder is arranged to wind up the dry paper material at a speed corresponding to the sheet-forming speed of the first sheet-forming machine or to the sheet-forming speed of the second sheet-forming machine to form the paper roll.
Control method for an industrial truck having at least one camera which is aligned with the range of a load-pickup means, a monitor and a control device, wherein in the control method the following steps are carried out when the industrial truck is located with the load-pickup means in front of a load to be picked up: - detection of the load by means of an image-processing method by the control device, such as for example a pattern-recognition or object-recognition method; - searching for a load-transportation device of the load via the control device, - determining the relative position of the load-transportation device with respect to the load-pickup means and the relative position of the pickup elements of the load-transportation device which are provided for the load-pickup means of the industrial truck, by the control device, - representing at least parts of the load and of the pickup elements on the monitor, - marking the pickup elements in the representation on the monitor, - interrogating a confirmation input, - in the case of a confirmation input, picking up the load onto the load-pickup means by automatic setting and orientation of the functions of the load-pickup means, which functions can be actuated by the control device, and of the driving functions of the industrial truck, which driving functions can be actuated by the control device, and - displaying the values to be set for functions of the load-pickup means and driving functions of the industrial truck on the monitor, which driving functions cannot be automatically actuated by the control device. - detection of the load by means of an image-processing method by the control device, such as for example a pattern-recognition or object-recognition method; - searching for a load-transportation device of the load via the control device, - determining the relative position of the load-transportation device with respect to the load-pickup means and the relative position of the pickup elements of the load-transportation device which are provided for the load-pickup means of the industrial truck, by the control device, - representing at least parts of the load and of the pickup elements on the monitor, - marking the pickup elements in the representation on the monitor, - interrogating a confirmation input, - in the case of a confirmation input, picking up the load onto the load-pickup means by automatic setting and orientation of the functions of the load-pickup means, which functions can be actuated by the control device, and of the driving functions of the industrial truck, which driving functions can be actuated by the control device, and - displaying the values to be set for functions of the load-pickup means and driving functions of the industrial truck on the monitor, which driving functions cannot be automatically actuated by the control device.
A cooking device comprising: a main body having a cooking space for cooking food; a base disposed at a lower side of the main body, and comprising a ventilation apparatus for suctioning and discharging contaminated air, the ventilation apparatus being connected to the lower side of the main body and having an introduction port; wherein the ventilation apparatus includes a swirler configured to be rotated so that the contaminated air is suctioned through the introduction port of the base, the swirler having a rotary plate and a plurality of wings disposed along an edge of the rotary plate in a circumferential direction thereof; wherein the base includes a flow guide having the introduction port and the swirler is located at a space formed by the flow guide under the introduction port so that swirl is formed under the flow guide by the swirler; and wherein the cooking device further comprises a driving motor installed at the base and configured to generate power for rotating the swirler; and a movable member (90, 1000) connected to the base to be inserted and withdrawn, and configured to block rising of contaminated air, while being withdrawn from the base, wherein the flow guide is configured to guide downwards a flow of air flowing by the swirler, and wherein the movable member (90, 1000) comprises a recessed portion which prevents interference with the flow guide while the movable member (90, 1000) is being inserted into the base. a main body having a cooking space for cooking food; a base disposed at a lower side of the main body, and comprising a ventilation apparatus for suctioning and discharging contaminated air, the ventilation apparatus being connected to the lower side of the main body and having an introduction port; wherein the ventilation apparatus includes a swirler configured to be rotated so that the contaminated air is suctioned through the introduction port of the base, the swirler having a rotary plate and a plurality of wings disposed along an edge of the rotary plate in a circumferential direction thereof; wherein the base includes a flow guide having the introduction port and the swirler is located at a space formed by the flow guide under the introduction port so that swirl is formed under the flow guide by the swirler; and wherein the cooking device further comprises a driving motor installed at the base and configured to generate power for rotating the swirler; and a movable member (90, 1000) connected to the base to be inserted and withdrawn, and configured to block rising of contaminated air, while being withdrawn from the base, wherein the flow guide is configured to guide downwards a flow of air flowing by the swirler, and wherein the movable member (90, 1000) comprises a recessed portion which prevents interference with the flow guide while the movable member (90, 1000) is being inserted into the base.
A security document, comprising at least a first layer, the first layer being of printable material; a second layer above the first layer, the second layer comprising optically variable ink; a third layer between the first layer and the second layer, the third layer comprising fluorescing ink and one or more partly or wholly fluorescing variable ink free areas (2-18, 2-22); and one or more personalization elements, the second layer comprises one or more wholly or partly optically variable ink free areas (2-12, 2-14, 2-16, 2-21); the one or more personalization elements comprises one or more optically variable elements formed at least by means of the one or more optically variable ink free areas (2-12, 2-14, 2-16, 2-21) in the second layer; the one or more personalization elements further comprises one or more optically fluorescing variable elements formed at least by means of the one or more partly or wholly fluorescing variable ink free areas (2-18, 2-22) in the third layer; said one or more partly fluorescing ink free areas fare formed under totally optically variable ink free areas (2-16, 2-21) of the second layer, characterized in that the ink free areas in the third layer are smaller than the optically variable ink free areas in the second layer.
A soldered product manufacturing device comprising: a stage on which a substrate is placed, solder being arranged on the substrate; a cover configured to cover at least an entire upper part of the substrate placed on the stage at a predetermined distance, the predetermined distance being a shortest distance between the solder arranged on the substrate and the cover; a chamber configured to house the stage and the cover; a heating portion configured to heat the substrate placed on the stage; and a reducing gas supply device configured to supply a reducing gas for reducing oxide into the chamber. a stage on which a substrate is placed, solder being arranged on the substrate; a cover configured to cover at least an entire upper part of the substrate placed on the stage at a predetermined distance, the predetermined distance being a shortest distance between the solder arranged on the substrate and the cover; a chamber configured to house the stage and the cover; a heating portion configured to heat the substrate placed on the stage; and a reducing gas supply device configured to supply a reducing gas for reducing oxide into the chamber.