mhurhangee/ep-ind-claims huggingface dataset:
End-grain wood panel containing wood having a predefined grain direction for pressure to be applied in the grain direction, characterised in that the wood consists of balsa wood veneers that are produced by tangential cutting of balsa wood trunks in a veneer peeling machine, the balsa wood veneers have a grain direction that is substantially aligned with respect to an ideal grain direction, the ideal grain direction describing the grain direction in which all the balsa wood veneers have the same grain direction, and the grain direction of the individual balsa wood veneers deviate from the ideal grain direction by no more than 30°, and the end-gr ain wood panel contains foamed polyurethane-containing adhesives between the balsa wood veneers, the adhesive being present in amounts of from 1 to 15 vol.%, based on the volume of the end-grain wood panel.
An illuminating animation device comprising: a housing compartment comprising a base and a film secured together via a wall that extends therebetween, wherein the film includes an image cut therein; a divider secured within the housing compartment, which divides the compartment into a first and second chamber (38, 40); a printed circuit board secured to the base within the housing compartment, wherein the printed circuit board includes a first and second LED, wherein the first LED is secured within the first chamber and the second LED is secured within the second chamber; a microcontroller unit secured to the base and electrically connected to the printec circuit board; and a power source electrically connected to the microcontroller unit. a housing compartment comprising a base and a film secured together via a wall that extends therebetween, wherein the film includes an image cut therein; a divider secured within the housing compartment, which divides the compartment into a first and second chamber (38, 40); a printed circuit board secured to the base within the housing compartment, wherein the printed circuit board includes a first and second LED, wherein the first LED is secured within the first chamber and the second LED is secured within the second chamber; a microcontroller unit secured to the base and electrically connected to the printec circuit board; and a power source electrically connected to the microcontroller unit.
A vacuum pump, in particular a turbomolecular pump or a backing pump for a turbomolecular pump, such as a scroll pump, a screw vacuum pump, a diaphragm pump, a rotary vane pump, a reciprocating piston pump or a Roots pump, comprising at least one pump mechanism for pumping a gas through the vacuum pump; and an electric motor, in particular configured as a synchronous motor, for driving the pump mechanism, wherein the electric motor has a stator and a rotor which cooperates with the stator and which is rotatable about an axis of rotation, with the rotor having a core formed from a packet of steel sheets and having permanent magnets which are arranged about the axis of rotation in the interior of the core; wherein the rotor has a predefinable number of rotor poles viewed in the peripheral direction of the rotor; wherein the packet of steel sheets is held together by at least one weld seam which is arranged at the outer side of a section of the core and the weld seam extends in parallel with the axis of rotation; and wherein the weld seam is arranged in a groove provided in the packet of steel sheets and extending in parallel with the axis of rotation, characterized in that each rotor pole comprises at least two permanent magnets; in that the section is disposed between permanent magnets of two rotor poles which are adjacent viewed in the direction of rotation of the rotor; and in that the weld seam is applied to the section in a centrally centered manner.
A curable composition comprising: a mixture of metal phthalocyanine dyes formed from at least phthalonitrile, a compound represented by the following formula, a compound represented by the following formula, and a metal or a metal compound; and a radiation-sensitive compound: wherein R 1 represents a substituent; n represents an integer of from 0 to 3; X represents -S-, -SO 2- or -SO 2 N(R 4)-; R 4 represents a hydrogen atom, an alkyl group, an alkenyl group, an aryl group or a heterocyclic ring group; R 2 represents an alkyl group, an alkenyl group, an aryl group or a heterocyclic ring group; R 3 represents a substituent; m represents an integer of from 0 to 3; and Z represents -X 1 -A wherein X 1 has the same definition as X; A represents an optionally substituted group having at least one moiety selected from -COOM, -SO 3 M, -SO 2 NH-R 5, - SO 2 NHCOR 6, -CONHSO 2 -R 7, and -SO 2 NHSO 2 -R 8; M represents a hydrogen atom, or an alkali metal or organic base group for neutralization of charges; and R 5, R 6, R 7, and R 8 each independently represents an alkyl group, an alkenyl group, an aryl group, or a heterocyclic ring group. a mixture of metal phthalocyanine dyes formed from at least phthalonitrile, a compound represented by the following formula, a compound represented by the following formula, and a metal or a metal compound; and a radiation-sensitive compound: wherein R 1 represents a substituent; n represents an integer of from 0 to 3; X represents -S-, -SO 2- or -SO 2 N(R 4)-; R 4 represents a hydrogen atom, an alkyl group, an alkenyl group, an aryl group or a heterocyclic ring group; R 2 represents an alkyl group, an alkenyl group, an aryl group or a heterocyclic ring group; R 3 represents a substituent; m represents an integer of from 0 to 3; and Z represents -X 1 -A wherein X 1 has the same definition as X; A represents an optionally substituted group having at least one moiety selected from -COOM, -SO 3 M, -SO 2 NH-R 5, - SO 2 NHCOR 6, -CONHSO 2 -R 7, and -SO 2 NHSO 2 -R 8; M represents a hydrogen atom, or an alkali metal or organic base group for neutralization of charges; and R 5, R 6, R 7, and R 8 each independently represents an alkyl group, an alkenyl group, an aryl group, or a heterocyclic ring group.
An appliance for drying laundry comprising an appliance cabinet, a laundry treatment chamber inside the cabinet, a drying air recirculation path for causing recirculation of the drying air into/out from the laundry treatment chamber, a drying air propeller driven by a drying air propeller motor (240; 340f; 440; 440f) for causing the drying air to recirculate along the drying air recirculation path, a drying air moisture condensing and heating system (205-220, 270; 405, 270) located in the drying air recirculation path for dehydrating the moisture-laden drying air leaving the laundry treatment chamber and heating the dehydrated drying air before it re-enters into the laundry treatment chamber, a user interface comprising a laundry drying cycle selector operable by a user for selecting one out of a number of default laundry drying cycles, and a control unit adapted to control the machine operation, said controlling the machine operation comprising commanding the drying propeller motor to work at a default average speed corresponding to the selected drying cycle, characterized in that the user interface comprises a command input means operable by the user for imparting to the appliance at any time during an ongoing selected drying cycle a command by which the control unit causes a change from the default drying air propeller motor average working speed corresponding to the selected laundry drying cycle to an average working speed of the drying air propeller motor which is different with respect to the default drying air propeller motor average working speed corresponding to the selected laundry drying cycle.
A liquid level detection sensor comprising: a light emitter that emits a light beam; a first surface that reflects the light beam emitted from the light emitter; a second surface that reflects the light beam which is reflected by the first surface, and which is transmitted through a flow path allowing a liquid to pass therethrough; and a light detector that receives the light beam that is reflected by the second surface, wherein an optical lens which condenses the light beam reflected by the second surface onto the light detector is disposed between the second surface and the light detector, and between a light path member and a board, wherein a space is provided between the light path member and the board such that light exiting the optical lens passes through the space. a light emitter that emits a light beam; a first surface that reflects the light beam emitted from the light emitter; a second surface that reflects the light beam which is reflected by the first surface, and which is transmitted through a flow path allowing a liquid to pass therethrough; and a light detector that receives the light beam that is reflected by the second surface, wherein an optical lens which condenses the light beam reflected by the second surface onto the light detector is disposed between the second surface and the light detector, and between a light path member and a board, wherein a space is provided between the light path member and the board such that light exiting the optical lens passes through the space.
An emulsifying device for emulsifying milk, comprising a Venturi mixing chamber, a circuit for supplying air and having an air outlet connected to the mixing chamber, and a circuit for supplying steam and having a steam outlet connected to the mixing chamber, characterized in that said circuit for supplying air comprises a first air inlet line equipped with a first shut-off solenoid valve and at least a second air inlet line equipped with a second shut-off solenoid valve, said first and second air inlet lines (5, 6) having a different minimum cross-sectional area (11, 12), and in that said first shut-off solenoid valve and said second shut-off solenoid valve are controlled for adjusting the degree of milk froth.
A seismic protective structure for forming part of a board partition, the seismic protective structure comprising: - at least one board, - a first support element for connecting the at least one board thereto and for positioning the at least one board such that said board provides at least one of the upper corner and lower corner of the board partition adjacent an adjacent wall neighboring the board partition, - a track element being connectable to the adjacent wall neighboring the board partition, the track element being adapted for moveably positioning the first support element therein, - a second support element for linking the at least one board with the remainder of the board partition, characterized in that the seismic protective structure comprising at least one breaking mechanism located adjacent said upper corner and/or lower corner of the board partition provided by said at least one board, wherein the breaking mechanism is adapted for, when a given level of seismic stress is appearing, intentionally causing damage to the at least one board at said upper corner and/or lower corner of the board partition, thereby releasing stress from the remainder of the board partition. - at least one board, - a first support element for connecting the at least one board thereto and for positioning the at least one board such that said board provides at least one of the upper corner and lower corner of the board partition adjacent an adjacent wall neighboring the board partition, - a track element being connectable to the adjacent wall neighboring the board partition, the track element being adapted for moveably positioning the first support element therein, - a second support element for linking the at least one board with the remainder of the board partition,
A method for removing impurities from a hydrocarbon stream, the method comprising the steps of: (a) supplying a portion of an untreated feed stream, said feed stream comprising one or more hydrocarbons and undesirable impurities, said impurities comprise at least one compound having at least one of the following elements: nitrogen, halogens, oxygen, sulfur, arsenic, selenium, tellurium, phosphorus, and Group 1 through Group 12 metals, (b) supplying a guard bed material which comprises a zeolite having a Constraint Index of less than 3 and a mesoporous binder, said mesoporous binder comprises a mesoporous metal oxide which has a particle diameter of greater than or equal to 20 μm at 50% of the cumulative particle size distribution (d 50), a pore volume of less than 1 cc/g and an alumina content greater than or equal to 75%, by weight, wherein the ratio of said zeolite to said mesoporous metal oxide is in the range from 95:5 to 5:95, by weight, wherein said guard bed material has one or more of the following properties: (i) an Alpha Value of greater than or equal to 500, (ii) a Collidine Uptake of greater than or equal to 600 μmoles/g, and (iii) a Temperature Programmed Ammonia Desportion of greater than or equal to 0.70 meq/g; and (c) contacting said portion of said untreated feed stream with said guard bed material under treatment conditions to remove at least a portion of said impurities and produce a treated feed stream having a reduced amount of impurities. (a) supplying a portion of an untreated feed stream, said feed stream comprising one or more hydrocarbons and undesirable impurities, said impurities comprise at least one compound having at least one of the following elements: nitrogen, halogens, oxygen, sulfur, arsenic, selenium, tellurium, phosphorus, and Group 1 through Group 12 metals, (b) supplying a guard bed material which comprises a zeolite having a Constraint Index of less than 3 and a mesoporous binder, said mesoporous binder comprises a mesoporous metal oxide which has a particle diameter of greater than or equal to 20 μm at 50% of the cumulative particle size distribution (d 50), a pore volume of less than 1 cc/g and an alumina content greater than or equal to 75%, by weight, wherein the ratio of said zeolite to said mesoporous metal oxide is in the range from 95:5 to 5:95, by weight, wherein said guard bed material has one or more of the following properties: (i) an Alpha Value of greater than or equal to 500, (ii) a Collidine Uptake of greater than or equal to 600 μmoles/g, and (iii) a Temperature Programmed Ammonia Desportion of greater than or equal to 0.70 meq/g; and (i) an Alpha Value of greater than or equal to 500, (ii) a Collidine Uptake of greater than or equal to 600 μmoles/g, and (iii) a Temperature Programmed Ammonia Desportion of greater than or equal to 0.70 meq/g; and (c) contacting said portion of said untreated feed stream with said guard bed material under treatment conditions to remove at least a portion of said impurities and produce a treated feed stream having a reduced amount of impurities.
A growing rod adapted to be secured along a length of a spine for treating deformities of the spine, comprising: a base rod; an extendable rod having a proximal portion that is slidably coupled to the base rod and arranged with a gear rack; and the rod further comprises _ a distraction unit having: a housing attached to the base rod; a rotatable drive interface accessible by an external driver from outside of the housing; a drive gear mechanism (402, 404, 406) housed within the housing and coupled to the rotatable drive interface and the gear rack such that rotation of the rotatable drive interface causes linear movement of the extendable rod through the gear rack, wherein the rotatable drive interface is adapted to be accessed by the external driver from outside of the housing and to be physically coupled to and manually rotated by the external driver for extending and retracting the extendable rod relative to the base rod; characterized in that the drive gear mechanism (402, 404, 406) includes a drive gear and a pinion that are coupled to the rotatable drive interface such that rotation of the rotatable drive interface causes the drive gear and the pinion to rotate. a base rod; an extendable rod having a proximal portion that is slidably coupled to the base rod and arranged with a gear rack; and the rod further comprises _ a distraction unit having: a housing attached to the base rod; a rotatable drive interface accessible by an external driver from outside of the housing; a drive gear mechanism (402, 404, 406) housed within the housing and coupled to the rotatable drive interface and the gear rack such that rotation of the rotatable drive interface causes linear movement of the extendable rod through the gear rack, wherein the rotatable drive interface is adapted to be accessed by the external driver from outside of the housing and to be physically coupled to and manually rotated by the external driver for extending and retracting the extendable rod relative to the base rod; characterized in that the drive gear mechanism (402, 404, 406) includes a drive gear and a pinion that are coupled to the rotatable drive interface such that rotation of the rotatable drive interface causes the drive gear and the pinion to rotate. a housing attached to the base rod; a rotatable drive interface accessible by an external driver from outside of the housing; a drive gear mechanism (402, 404, 406) housed within the housing and coupled to the rotatable drive interface and the gear rack such that rotation of the rotatable drive interface causes linear movement of the extendable rod through the gear rack, wherein the rotatable drive interface is adapted to be accessed by the external driver from outside of the housing and to be physically coupled to and manually rotated by the external driver for extending and retracting the extendable rod relative to the base rod; characterized in that the drive gear mechanism (402, 404, 406) includes a drive gear and a pinion that are coupled to the rotatable drive interface such that rotation of the rotatable drive interface causes the drive gear and the pinion to rotate.
A method, performed by one or more processors, the method comprising: receiving first data representing an infrastructure of a computer network, the first data comprising an indication of hosts (601, 602) which form at least part of the computer network and one or more software resources on respective hosts; receiving second data from a vulnerability scanning software, the second data comprising an indication of one or more vulnerabilities detected in the one or more software resources provided on at least some of the hosts of the computer network; generating, using a combination of the first data and the second data, output data representing a risk profile of the computer network infrastructure, the output data indicating one or more subsets of hosts, determined as being at risk of being affected by the detected vulnerabilities by virtue of the software resources they provide for output on a user interface; and determining a patch deployment strategy based on one or more prioritization rules, performance of which is dependent on the infrastructure of the computer network, the one or more prioritization rules determining an order of one or more patches to deploy to remedy the detected vulnerabilities, wherein the prioritization rules identify a number N of most-critical vulnerabilities and the deployment strategy determines a least number of patches to deploy to remedy all of the N most-critical vulnerabilities. receiving first data representing an infrastructure of a computer network, the first data comprising an indication of hosts (601, 602) which form at least part of the computer network and one or more software resources on respective hosts; receiving second data from a vulnerability scanning software, the second data comprising an indication of one or more vulnerabilities detected in the one or more software resources provided on at least some of the hosts of the computer network; generating, using a combination of the first data and the second data, output data representing a risk profile of the computer network infrastructure, the output data indicating one or more subsets of hosts, determined as being at risk of being affected by the detected vulnerabilities by virtue of the software resources they provide for output on a user interface; and determining a patch deployment strategy based on one or more prioritization rules, performance of which is dependent on the infrastructure of the computer network, the one or more prioritization rules determining an order of one or more patches to deploy to remedy the detected vulnerabilities, wherein the prioritization rules identify a number N of most-critical vulnerabilities and the deployment strategy determines a least number of patches to deploy to remedy all of the N most-critical vulnerabilities.
A solar module, comprising: a plurality of solar cells, which are electrically conductively connected with at least one conductor strip, the solar cells and the conductor strip being arranged at least partially within a lamination layer (30, 40), and at least one contact piece formed separately from the conductor strip, a first end of the contact piece being electrically conductively contacted with a free end of the conductor strip, and the point of contact between the conductor strip and the contact piece being embedded in a lamination layer, a second end of the contact piece being led out of the lamination layer, and the conductor strip extending on a surface of the solar module, and a front portion of a free end of the conductor strip being bent upward substantially perpendicular to the surface of the solar module and serving as a surface of contact with the contact piece. a plurality of solar cells, which are electrically conductively connected with at least one conductor strip, the solar cells and the conductor strip being arranged at least partially within a lamination layer (30, 40), and at least one contact piece formed separately from the conductor strip, a first end of the contact piece being electrically conductively contacted with a free end of the conductor strip, and the point of contact between the conductor strip and the contact piece being embedded in a lamination layer, a second end of the contact piece being led out of the lamination layer, and