mhurhangee/ep-ind-claims huggingface dataset:
A transparent ballistic protection system having at least one component made from spinel (MgAl 2 O 4) and having a matrix material which at least partially covers the at least one component, wherein the at least one component has an optical refractive index n B, and the matrix material has an optical refractive index n M, with n B = a.n M, with 1.1 ≥ a ≥ 0.9, so that the protection system at a wavelength of 300 nm or 500 nm or 700 nm or 1000 nm or 2000 nm or 4000 nm has an RIT (real-inline-transmission) > 10%, wherein the at least one component is a triangular, square or hexagonal small plate or tile, wherein the at least one component is combined with at least one further transparent material layer to form a laminated compound, wherein at least one component consists of an unpolished ceramic material, and wherein the at least one material layer is formed by a glass-surface element.
A method for producing a mirror plate for a Fabry-Perot interferometer, the method comprising: - providing a substrate, which comprises silicon (Si), - implementing a semi-transparent reflective coating on the substrate, - forming a passivated region in and/or on the substrate by etching a plurality of voids in the substrate, and by passivating the surfaces of the voids, - forming a first sensor electrode (G1a) on top of the passivated region, and - forming a second sensor electrode (G1b) supported by the substrate, characterized in that the inner widths (w E1) of the voids are smaller than 10 μm in a transverse direction, the widths (w S1) of the walls between the voids are smaller than 10 μm in a transverse direction, and wherein the electrical conductivity (σ 70) of the passivated region is lower than 20% of the electrical conductivity (σ Si) of the silicon of the substrate at the temperature of 25°C. - providing a substrate, which comprises silicon (Si), - implementing a semi-transparent reflective coating on the substrate, - forming a passivated region in and/or on the substrate by etching a plurality of voids in the substrate, and by passivating the surfaces of the voids, - forming a first sensor electrode (G1a) on top of the passivated region, and - forming a second sensor electrode (G1b) supported by the substrate,
Device for discharging a liquid active substance into a cleaning water, in particular of a toilet bowl, wherein the device has a container which receives the liquid active substance and which is provided with a lower-side opening which is operationally connected to a distribution plate which distributes the liquid active substance and which can be acted on by the cleaning water, wherein the distribution plate distributes the active substance by means of capillary channels (6, 25) over the surface thereof, wherein the distribution plate is enclosed at the bottom by a trough in which at least a portion of the active substance and/or cleaning water can be introduced, wherein the trough extends beyond the upper edge of the distribution plate, at least one aperture (9, 24) being provided in the distribution plate, through which the liquid active substance and/or the cleaning water can reach the trough and wherein at least one outlet is provided in the trough base, which has a siphon.
A lighting means comprising at least two OLEDs as light sources and a circuit configuration for the power supply of the OLEDs during operation of the lighting means, with: - at least two electrical connections (250, 251, 252), for at least one OLED each; - at least one temperature sensor, which is at least in thermally conducting contact with at least one of the OLEDs and which has an output signal that is proportional to a temperature detected by it; - a circuit connected to the temperature sensor and controlled by the output signal of said temperature sensor, which circuit controls the power feed of at least one of the OLEDs based on the temperature detected by the temperature sensor; characterised in that the output signal of the temperature sensor controls the circuit such that, during operation of the lighting means, the circuit configuration: - disconnects at least one electrical connection from the power supply in the instance of an output signal that is proportional to a temperature detected by the temperature sensor, which temperature is lower than a specified threshold temperature, wherein at least one remaining electrical connection continues to be connected to the power supply, and - connects all electrical connections (250, 251, 252) to the power supply in the instance of an output signal that is proportional to a temperature detected by the temperature sensor, which temperature is higher than a specified threshold temperature. - at least two electrical connections (250, 251, 252), for at least one OLED each; - at least one temperature sensor, which is at least in thermally conducting contact with at least one of the OLEDs and which has an output signal that is proportional to a temperature detected by it; - a circuit connected to the temperature sensor and controlled by the output signal of said temperature sensor, which circuit controls the power feed of at least one of the OLEDs based on the temperature detected by the temperature sensor; - disconnects at least one electrical connection from the power supply in the instance of an output signal that is proportional to a temperature detected by the temperature sensor, which temperature is lower than a specified threshold temperature, wherein at least one remaining electrical connection continues to be connected to the power supply, and - connects all electrical connections (250, 251, 252) to the power supply in the instance of an output signal that is proportional to a temperature detected by the temperature sensor, which temperature is higher than a specified threshold temperature.
Electrical power breaker having a housing and having a connecting rail accommodated in an opening in the housing, the end of said connecting rail which protrudes into the housing being part of a switching contact arrangement and bearing an arcing horn which has a fixing limb resting on the connecting rail, wherein at least one projection pointing towards the connecting rail is formed on the fixing limb of the arcing horn, and wherein the connecting rail has a recess for the purpose of accommodating the projection, characterized in that the opening is dimensioned such that it is matched to the cross-sectional shape of the connecting rail, and a collar which covers the fixing limb of the arcing horn at the top and at the sides is integrally formed on the housing, which collar covers the fixing limb and overlaps the said fixing limb laterally with lateral side pieces, and in that the arcing horn, for the purpose of connecting it to the connecting rail, bears with its fixing limb over a large area on the recess side of the connecting rail, wherein the projection is inserted into the recess in the form of a groove.
A method for interference coordination in an inter-radio access technology, RAT, system, comprising: acquiring information about a time-frequency resource of a first cell and information about an interference relationship between the first cell and a second cell, wherein the information about the interference relationship between the first cell and the second cell is used to determine interference imposed on the second cell by the first cell, and the first cell and the second cell are cells of different RATs; the method being characterized by determining information about a time-frequency resource of the second cell according to the information about the time-frequency resource of the first cell and the information about the interference relationship, wherein the information about the time-frequency resource of the second cell is used by the second cell to schedule a time-frequency resource, wherein the information about the time-frequency resource of the second cell being specifically used to instruct the second cell to use a first carrier of the second cell to schedule a second carrier of the second cell in a cross-carrier manner, wherein the second carrier comprises a time-frequency resource shared by the first cell and the second cell. acquiring information about a time-frequency resource of a first cell and information about an interference relationship between the first cell and a second cell, wherein the information about the interference relationship between the first cell and the second cell is used to determine interference imposed on the second cell by the first cell, and the first cell and the second cell are cells of different RATs; the method being characterized by determining information about a time-frequency resource of the second cell according to the information about the time-frequency resource of the first cell and the information about the interference relationship, wherein the information about the time-frequency resource of the second cell is used by the second cell to schedule a time-frequency resource, wherein the information about the time-frequency resource of the second cell being specifically used to instruct the second cell to use a first carrier of the second cell to schedule a second carrier of the second cell in a cross-carrier manner, wherein the second carrier comprises a time-frequency resource shared by the first cell and the second cell.
An anti-counterfeit label, characterized in that it comprises a bottom plate in which ink cavities are provided, the ink cavity being filled with anti-counterfeit ink, wherein two or more ink cavities are arranged to form an anti-counterfeit information, and a sealing cover plate is arranged on top of the ink cavities, and wherein the bottom plate has a thickness of 0.2-2.0mm, the ink cavities in the bottom plate each have a depth of 0.019-1.99mm, and the sealing cover plate is a plastic film sealing cover plate with a thickness greater than 0.0001mm, wherein the bottom plate is a paper bottom, wherein a plastic film is overlaid on the paper bottom plate and surfaces of the ink cavities after the ink cavities are formed in the paper bottom plate, or wherein the bottom plate is a plastic film with a thickness of 0.2-2.0mm, wherein the plastic film is provided with circular or square holes with a depth of 0.019-1.99mm as ink cavities; wherein the anti-counterfeit ink is injected into the ink cavities, characterized in that the anti-counterfeit ink comprises the following components: 0.6-4.0 parts by weight of sodium hydroxide, 1.6-5.0 parts by weight of Thymol Phenolphthalein, 5-80 parts by weight of glycerine, 10-200 parts by weight of ethanol, 1-100 parts by weight of ethyl ether, wherein the above parts are dosages per 100 milliliter of distilled water.
A mobile terminal, comprising: a touchscreen for displaying a moving image; a proximity sensor for sensing an object in near-proximity to the touchscreen; and a controller for controlling a play speed of the moving image according to a proximity degree between the object and the touchscreen, wherein the controller captures an image frame of the moving image when the object contacts the touchscreen while the image frame is displayed. a touchscreen for displaying a moving image; a proximity sensor for sensing an object in near-proximity to the touchscreen; and a controller for controlling a play speed of the moving image according to a proximity degree between the object and the touchscreen, wherein the controller captures an image frame of the moving image when the object contacts the touchscreen while the image frame is displayed.
A glove dispensing apparatus for enabling hygienic location of a glove on a hand, comprising: a storage for storing a package of disposable gloves in the form of a continuous line of gloves with the gloves being joined to one another by a respective frangible connection in the line; a hand insertion station; a line gripping station; an indexing device comprising a line gripper and being arranged to move along the continuous line of gloves in a direction from the hand insertion station to the line gripping station for gripping of the continuous line of gloves at the gripping station by the line gripper and drawing the gripped said continuous line of gloves from the storage with movement of the indexing device in an opposite direction from the gripping station to the hand insertion station; and a glove opening device for opening a leading said glove of the continuous line of gloves so a user can insert his or her hand into the opened said glove at the hand insertion station. a storage for storing a package of disposable gloves in the form of a continuous line of gloves with the gloves being joined to one another by a respective frangible connection in the line; a hand insertion station; a line gripping station; an indexing device comprising a line gripper and being arranged to move along the continuous line of gloves in a direction from the hand insertion station to the line gripping station for gripping of the continuous line of gloves at the gripping station by the line gripper and drawing the gripped said continuous line of gloves from the storage with movement of the indexing device in an opposite direction from the gripping station to the hand insertion station; and a glove opening device for opening a leading said glove of the continuous line of gloves so a user can insert his or her hand into the opened said glove at the hand insertion station.
Safety device for an oil and gas installation, which installation comprises one or more conduits (11; 39) for the transport of oil and/or gas, and/or one or more valves, wherein the safety device comprises: a first freezing device (2, 10, 7, 8; 32, 33) for forming a closing ice plug, which first freezing device is configured to spray a freezing medium into the conduit and/or into the valve, and/or comprises a spraying device which is configured to spray, a freezing medium around the conduit (11; 39) and/or around the valve (5,6); and plug a second freezing device for maintaining the closing ice plug and wherein the first freezing device (2, 10, 7, 8; 32, 33) is substantially positioned in and/or around the conduit (11; 39) and/or the valve (5,6), wherein - in operation of the safety device - the first freezing device (2, 10, 7, 8; 32, 33) cools the conduit (11; 39) and/or the valve (5,6) to such an extent that a closing ice plug is formed in the conduit (11; 39) and/or the valve (5,6); and wherein the second freezing device comprises a closed conduit device for transporting a freezing medium, such that - in operation of the safety device - during a first time period the freezing medium is sprayed by the first freezing device (2, 10, 7, 8; 32, 33) in order to form the closing ice plug and that during a second time period the formed closure is maintained by the second freezing device, and wherein during the second period the spraying of the freezing medium is halted. a first freezing device (2, 10, 7, 8; 32, 33) for forming a closing ice plug, which first freezing device is configured to spray a freezing medium into the conduit and/or into the valve, and/or comprises a spraying device which is configured to spray, a freezing medium around the conduit (11; 39) and/or around the valve (5,6); and plug a second freezing device for maintaining the closing ice plug and wherein the first freezing device (2, 10, 7, 8; 32, 33) is substantially positioned in and/or around the conduit (11; 39) and/or the valve (5,6), wherein - in operation of the safety device - the first freezing device (2, 10, 7, 8; 32, 33) cools the conduit (11; 39) and/or the valve (5,6) to such an extent that a closing ice plug is formed in the conduit (11; 39) and/or the valve (5,6); and - the first freezing device (2, 10, 7, 8; 32, 33) cools the conduit (11; 39) and/or the valve (5,6) to such an extent that a closing ice plug is formed in the conduit (11; 39) and/or the valve (5,6); and wherein the second freezing device comprises a closed conduit device for transporting a freezing medium, such that - in operation of the safety device - during a first time period the freezing medium is sprayed by the first freezing device (2, 10, 7, 8; 32, 33) in order to form the closing ice plug and that during a second time period the formed closure is maintained by the second freezing device, and wherein during the second period the spraying of the freezing medium is halted.
A linear displacement sensor (20; 74) comprising: four spaced apart magnets (28, 30, 32, 34) arranged symmetrically positioned to form four corners of a rectangle, which rectangle defines two diagonals, which meet to define a center point, and an axis of symmetry passing through the center point and bisecting angles defined by the diagonals, each magnet (28, 30, 32, 34) having portions facing the axis of symmetry; each magnet (28, 30, 32, 34) having a pole facing the axis of symmetry, wherein magnets lying on the same diagonal have identical poles facing the axis of symmetry, and magnets symmetrically positioned with respect to the axis of symmetry have opposed poles; and a magnetic field strength sensor arranged for relative movement substantially along the axis of symmetry with respect to the four magnets (28, 30, 32, 34); wherein the first magnet, the second magnet, the third magnet, and the fourth magnet (28, 30, 32, 34) each have portions facing the axis of symmetry which are formed in the shape of a staircase having at least two steps, the first step with a pole surface spaced from the axis of symmetry, and the second step with a pole surface spaced further from the axis of symmetry than the pole surface of the first step. four spaced apart magnets (28, 30, 32, 34) arranged symmetrically positioned to form four corners of a rectangle, which rectangle defines two diagonals, which meet to define a center point, and an axis of symmetry passing through the center point and bisecting angles defined by the diagonals, each magnet (28, 30, 32, 34) having portions facing the axis of symmetry; each magnet (28, 30, 32, 34) having a pole facing the axis of symmetry, wherein magnets lying on the same diagonal have identical poles facing the axis of symmetry, and magnets symmetrically positioned with respect to the axis of symmetry have opposed poles; and a magnetic field strength sensor arranged for relative movement substantially along the axis of symmetry with respect to the four magnets (28, 30, 32, 34); wherein the first magnet, the second magnet, the third magnet, and the fourth magnet (28, 30, 32, 34) each have portions facing the axis of symmetry which are formed in the shape of a staircase having at least two steps, the first step with a pole surface spaced from the axis of symmetry, and the second step with a pole surface spaced further from the axis of symmetry than the pole surface of the first step.
Membrane, comprising in this order a porous support layer, an optional catalyst layer, a gas tight electronically and ionically conducting membrane layer which is an oxygen ion conductor or proton conductor, and a catalyst layer, characterized in that the electronically and ionically conducting membrane layer is formed from a material having a crystallite structure with a crystal size of 1 to 100 nm.
A sweetener composition comprising or consisting of at least one compound of general formula wherein R 1 is H or a sugar moiety or a monosaccharide or SO 3 H, R 2 is H or a sugar moiety or a monosaccharide or SO 3 H, on condition that said composition does not contain any of the following structures: with R1 = H, Glucose, Rhamnose, or Xylopyranose R 1 is H or a sugar moiety or a monosaccharide or SO 3 H, R 2 is H or a sugar moiety or a monosaccharide or SO 3 H,
A process for preparing a catalyst composition, which process comprises selecting a support having a surface area of at least 500 m 2 /kg, and depositing on the support: - silver metal, - one or more of rhenium, molybdenum, tungsten, and nitrogen oxides and/or organic nitrogen compounds, or components comprising one or more of rhenium, molybdenum, tungsten, and nitrogen oxides and/or organic nitrogen compounds, and - a Group IA metal or component comprising a Group IA metal having an atomic number of at least 37, and - in addition potassium and lithium, such that the value of the expression (Q K / R) + Q HIA is in the range of from 1.5 to 30 mmole/kg, wherein Q HIA and Q K represent the quantities in mmole/kg of the Group IA metal having an atomic number of at least 37 and potassium, respectively, present in the catalyst composition, the ratio of Q HIA to Q K is at least 1:1 and at most 2.5:1, the value of Q K is at least 0.01 mmole/kg, and R is a dimensionless number in the range of from 1. 5 to 5, the units mmole/kg being relative to the weight of the catalyst composition. - silver metal, - one or more of rhenium, molybdenum, tungsten, and nitrogen oxides and/or organic nitrogen compounds, or components comprising one or more of rhenium, molybdenum, tungsten, and nitrogen oxides and/or organic nitrogen compounds, and - a Group IA metal or component comprising a Group IA metal having an atomic number of at least 37, and - in addition potassium and lithium,
A method of fabricating a hydrogel construct comprising: solidifying a first solution into a first construct layer with a first energy dosage using stereolithography, the first solution comprising: a first hydrogel polymer; and a first photoinitiator, wherein the first polymer and first photoinitiator are of a first concentration; and building a second construct layer using stereolithography, the second layer disposed on the first construct layer in any dimension, characterized in that the thickness of the first construct layer is different than the thickness of the second construct layer; and forming the second construct layer comprises solidifying a second solution into a second construct layer, the second solution being different than the first solution. solidifying a first solution into a first construct layer with a first energy dosage using stereolithography, the first solution comprising: a first hydrogel polymer; and a first photoinitiator, wherein the first polymer and first photoinitiator are of a first concentration; and a first hydrogel polymer; and a first photoinitiator, wherein the first polymer and first photoinitiator are of a first concentration; and building a second construct layer using stereolithography, the second layer disposed on the first construct layer in any dimension, characterized in that the thickness of the first construct layer is different than the thickness of the second construct layer; and forming the second construct layer comprises solidifying a second solution into a second construct layer, the second solution being different than the first solution.