mhurhangee/ep-ind-claims huggingface dataset:
Sandwich sheet, in particular for the production of construction elements or of vehicle body parts, with metallic cover sheets (1.1, 1.2) and with, arranged between the cover sheets, at least one core layer (1.3) made of polymer and is integrally joined to the cover sheets (1.1, 1.2), characterized in that the core layer (1.3) comprises a fibre-containing carrier and, surrounding the fibres of the carrier, a polyurethane matrix, in which the polyurethane matrix has been formed from an aqueous, solvent-free polyurethane dispersion, in which the fibres have the form of relatively short fibre pieces with a total fibre length of maximum 50 mm in the polyurethane matrix, wherein the fibres of the carrier are composed of non-combustible, ceramic fibres.
A composition comprising particles of diclofenac acid dispersed in at least two partially milled grinding materials, wherein (a) the at least two grinding materials are i) sodium lauryl sulfate and lactose monohydrate, or ii) sodium lauryl sulfate and lactose anhydrous; and (b) the particles have a median particle size as measured on a particle volume basis of less than or equal to a size selected from the group consisting of 1000nm, 900nm, 800nm, 700nm, 600nm, 500nm, 400 nm, 300nm, 200nm, and 100 nm. (a) the at least two grinding materials are i) sodium lauryl sulfate and lactose monohydrate, or ii) sodium lauryl sulfate and lactose anhydrous; and i) sodium lauryl sulfate and lactose monohydrate, or ii) sodium lauryl sulfate and lactose anhydrous; (b) the particles have a median particle size as measured on a particle volume basis of less than or equal to a size selected from the group consisting of 1000nm, 900nm, 800nm, 700nm, 600nm, 500nm, 400 nm, 300nm, 200nm, and 100 nm.
Heating device for producing carbon fibers from a threadlike fiber starting material, wherein the heating device has a heating source for a central tubular induction heating element, through which the fiber starting material is moved, the tubular induction heating element is surrounded by a thermal insulation, the heating source is an induction coil outside the thermal insulation, and the central induction heating element receives a flow of inert gas in particular for the carbonization and/or graphitization of the fiber starting material, characterized in that the heating source is formed by at least one medium to high frequency induction coil, and in that on the outside of the thermal insulation there are provided a first and a second tube element (26, 28) of material transparent to the induction field of the induction coil, which are separated from each other by an annular gap, through which the inert gas flows, the inert gas is guided in counterflow through the annular gap between the first and the second tube element (26, 28) and through the central tubular induction heating element, wherein at the two axially opposite ends (42, 44) of the central tubular induction heating element and the first and second tube element (26, 28) there is provided a cover element (46, 48) each time, wherein the one cover element is provided for the diverting of the inert gas from the annular gap between the first and the second tube element (26, 28) to the central tubular induction heating element and the other cover element for the introducing of the inert gas into the annular gap between the first and the second tube element (26, 28) and for bringing the inert gas out from the central tubular induction heating element.
A method for producing a flanged cap for receptacles for taking up pharmaceutical substances, especially ampullas, comprising the following steps: Providing a metal foil; providing a plastic foil; subjecting the plastic foil to a pre-treatment for improving the adhesiveness for a print; one-sided providing the plastic foil with the print without carrying out a varnishing in order to equip the same with an identification, as for instance a coloration, a pattern, individual features, etc.; and laminating the metal foil with the printed plastic foil such that the foil side provided with the print is arranged as counterprint adjacent to the metal foil for the production of a base material for the flanged cap; and punching and deep-drawing of the flanged cap from the base material so that the same has a laterally open cutting edge. Providing a metal foil; providing a plastic foil; subjecting the plastic foil to a pre-treatment for improving the adhesiveness for a print; one-sided providing the plastic foil with the print without carrying out a varnishing in order to equip the same with an identification, as for instance a coloration, a pattern, individual features, etc.; and laminating the metal foil with the printed plastic foil such that the foil side provided with the print is arranged as counterprint adjacent to the metal foil for the production of a base material for the flanged cap; and punching and deep-drawing of the flanged cap from the base material so that the same has a laterally open cutting edge.
Cash desk system having at least one first flat element, in particular a wall and/or bottom panel, and at least one second flat element, in particular a wall and/or bottom panel, wherein the first flat element has at least one quick-action connecting element and the second flat element has at least one quick-action connecting counterpart, wherein, in the assembled state of the cash desk system, the at least one quick-action connecting element is connected to the at least one quick-action connecting counterpart, in particular engages in the latter, characterized in that the cash desk system is equipped with at least one security tag detection module and at least one antenna of the security tag detection module, and wherein the antenna is arranged in a concealed manner in the assembled state of the cash desk system, and wherein the antenna structure of the antenna of the security tag detection module is also introduced into a wall of the cash desk system.
A computer-implemented method for resuming activities using activity data collected by an operating system, comprising: (i) exposing an application programming interface by way of an operating system executing on a computing device, the API configured to receive and store activity data from a plurality of applications corresponding to a plurality of activities performed during a time period, the activity data received from an application identifying the application and an activity previously performed using the application; (ii) receiving a request to view the activity data; (iii) responsive to receiving the request to view the activity data, presenting a user interface comprising UI controls corresponding to the plurality of activities previously performed by the user during the time period, the UI controls configured to present the activity data and each of the UI controls identifying the application and the activity previously performed using the application and wherein the UI controls are presented in the UI in an order based upon the time at which an associated activity was performed; (iv) receiving a selection of one of the UI controls in the UI; (v) responsive to receiving the selection of one of the UI controls, causing the computing device to resume the corresponding activity by executing the associated application and initiating the previously performed activity using the application; and (vi) repeating steps (iii)-(v). (i) exposing an application programming interface by way of an operating system executing on a computing device, the API configured to receive and store activity data from a plurality of applications corresponding to a plurality of activities performed during a time period, the activity data received from an application identifying the application and an activity previously performed using the application; (ii) receiving a request to view the activity data; (iii) responsive to receiving the request to view the activity data, presenting a user interface comprising UI controls corresponding to the plurality of activities previously performed by the user during the time period, the UI controls configured to present the activity data and each of the UI controls identifying the application and the activity previously performed using the application and wherein the UI controls are presented in the UI in an order based upon the time at which an associated activity was performed; (iv) receiving a selection of one of the UI controls in the UI; (v) responsive to receiving the selection of one of the UI controls, causing the computing device to resume the corresponding activity by executing the associated application and initiating the previously performed activity using the application; and (vi) repeating steps (iii)-(v).
Device for locking two adjacent sections (1, 2) of a paper roll placed on the sides of a cutting section plane defined by the advancement movement through the roll of a cutting blade of a cutting machine, wherein the device comprises a pair of clamping devices (6, 7) configured to be able to assume an unlocking configuration and a locking configuration of respective sections (1, 2) of the roll, at least a first actuator operable on command to pass said clamping devices from the unlocking configuration to the locking configuration of the respective sections (1, 2), and vice versa, at least a second actuator connected to the clamping devices (6, 7) and configured to perform a distancing movement of the clamping devices in locking configuration with respect to said cutting section plane, characterized in that it comprises inhibitition means (11, 66) configured for inhibiting the mutual distancing movement of the active clamping devices during the cutting advancement of the blade through the roll, and control and activation means operatively connected to said inhibition means and to said second actuator of the clamping devices (6, 7), configured to deactivate said inhibition means (11, 66) and activate said second actuator to perform the mutual distancing of the clamping devices at the end of the cutting step of the roll performed by the blade. a pair of clamping devices (6, 7) configured to be able to assume an unlocking configuration and a locking configuration of respective sections (1, 2) of the roll, at least a first actuator operable on command to pass said clamping devices from the unlocking configuration to the locking configuration of the respective sections (1, 2), and vice versa, at least a second actuator connected to the clamping devices (6, 7) and configured to perform a distancing movement of the clamping devices in locking configuration with respect to said cutting section plane, characterized in that it comprises inhibitition means (11, 66) configured for inhibiting the mutual distancing movement of the active clamping devices during the cutting advancement of the blade through the roll, and control and activation means operatively connected to said inhibition means and to said second actuator of the clamping devices (6, 7), configured to deactivate said inhibition means (11, 66) and activate said second actuator to perform the mutual distancing of the clamping devices at the end of the cutting step of the roll performed by the blade.
A method for removing chloride from concentrated zinc sulphate solution by means of copper oxide, whereby a sidestream is taken from the zinc sulphate solution, which is cooled and routed to a chloride removal stage, characterised in that chloride removal is performed by means of copper oxide Cu 2 O, which is produced in a separate copper oxide formation stage by reducing the copper sulphate contained in the zinc sulphate solution fed into the stage and the copper sulphate additionally fed into the stage into copper oxide by means of zinc powder at a pH range of 4.5-5.
A method for determining fluid content in a formation sample, the method comprising: disposing the formation sample with a standard sample of a known chemical composition and one or more nuclear magnetic resonance attributes in a NMR coil or probe; acquiring NMR signals for the formation sample and the standard sample simultaneously; and determining fluid content in the formation sample (V r) using the formula: V r = V st M st M r where M st is the NMR signal of the standard sample with known fluid volume (V st) and M r is the NMR signal of the formation sample, and where the NMR attributes of the standard sample are distinct but not too far from the NMR attributes of the formation sample. disposing the formation sample with a standard sample of a known chemical composition and one or more nuclear magnetic resonance attributes in a NMR coil or probe; acquiring NMR signals for the formation sample and the standard sample simultaneously; and determining fluid content in the formation sample (V r) using the formula: V r = V st M st M r where M st is the NMR signal of the standard sample with known fluid volume (V st) and M r is the NMR signal of the formation sample, and where the NMR attributes of the standard sample are distinct but not too far from the NMR attributes of the formation sample.
A hydrocarbon conversion catalyst system for conversion of a hydrocarbon feed comprising a saturated hydrocarbon compound to olefin products, comprising: a. a first composition comprising a dehydrogenation active metal on a solid support; and b. a second composition comprising a transition metal on an inorganic support, wherein the first composition is different from the second composition; the dehydrogenation active metal is selected from the group consisting of platinum, palladium, iridium, chromium, and mixtures thereof; the solid support is selected from aluminum oxide and a mixed of magnesium oxide and aluminum oxide; the inorganic support is silicon dioxide or a mixture of silicon dioxide and zeolite; a. a first composition comprising a dehydrogenation active metal on a solid support; and b. a second composition comprising a transition metal on an inorganic support, wherein the first composition is different from the second composition; the dehydrogenation active metal is selected from the group consisting of platinum, palladium, iridium, chromium, and mixtures thereof; the solid support is selected from aluminum oxide and a mixed of magnesium oxide and aluminum oxide; the inorganic support is silicon dioxide or a mixture of silicon dioxide and zeolite;
Heat insulating panel made of closed-cells expanded extruded polystyrene, wherein said panel is made with granules of re-granulated polystyrene from scraps from the production of panels or slabs of extruded polystyrene which comprises one or more members of the group consisting of carbon, a flame retardant additive, a nucleant additive, microspheres or pre-disperseds with an elastomeric polymer base or rubbers or flours derived from vegetable and/or wood fibers which function as sound absorbents, and not from discards from post-consumption products or solid urban waste wherein the re-granulated polystyrene is free of residues, additional chemical compounds or other pollutants and has an M.F.I. value comprised between 5 and 60, characterised in that the re-granulated polystyrene comprises graphite and the panel in a non-aged state has a thickness of 2cm and a heat conductivity of less than 0.027W/m*K°.
A vitrectomy probe, comprising: a hand-graspable body; an outer tube extending from the hand-graspable body and sized to penetrate an eye of a patient during an ocular surgery, the outer tube having a closed distal end and a first port sized to receive vitreous of the eye; and an inner tube disposed at least partially within the outer tube, the inner tube comprising a second port selectively alignable with a portion of the first port in a manner that allows fluid to flow through the first port and into the second port, the second port having a proximal edge and a distal edge, the inner tube also comprising a distal tip forming a first cutting edge facing in a distal direction, the distal edge of the second port forming a second cutting edge facing in a proximal direction, the inner tube having a first diameter at a proximal end of the second port and having a second diameter at the distal tip, characterised in that the first diameter is greater than the second diameter. a hand-graspable body; an outer tube extending from the hand-graspable body and sized to penetrate an eye of a patient during an ocular surgery, the outer tube having a closed distal end and a first port sized to receive vitreous of the eye; and an inner tube disposed at least partially within the outer tube, the inner tube comprising a second port selectively alignable with a portion of the first port in a manner that allows fluid to flow through the first port and into the second port, the second port having a proximal edge and a distal edge, the inner tube also comprising a distal tip forming a first cutting edge facing in a distal direction, the distal edge of the second port forming a second cutting edge facing in a proximal direction, the inner tube having a first diameter at a proximal end of the second port and having a second diameter at the distal tip, characterised in that the first diameter is greater than the second diameter.
Circuit arrangement for operating a pulse laser diode, comprising - a pulse laser diode; - a pulser circuit, which feeds a current into the pulse laser diode; - a DC current source, which feeds a DC current IBIAS into the pulse laser diode; - a temperature measuring device for determining measurement values concerning the temperature of the pulse laser diode, which is coupled to the DC current source by means of an electrical line, characterized in that the circuit arrangement is configured such that the measurement values concerning the temperature of the pulse laser diode that are supplied by the temperature measuring device are used for controlling the DC current source and the DC current source feeds into the pulse laser diode a current that suffices to increase the temperature in the chip of the pulse laser diode during operation by at least 10 K. - a pulse laser diode; - a pulser circuit, which feeds a current into the pulse laser diode; - a DC current source, which feeds a DC current IBIAS into the pulse laser diode; - a temperature measuring device for determining measurement values concerning the temperature of the pulse laser diode, which is coupled to the DC current source by means of an electrical line, characterized in that the circuit arrangement is configured such that the measurement values concerning the temperature of the pulse laser diode that are supplied by the temperature measuring device are used for controlling the DC current source and the DC current source feeds into the pulse laser diode a current that suffices to increase the temperature in the chip of the pulse laser diode during operation by at least 10 K.
A vehicle display assembly comprising: a display configured to graphically depict information; a printed circuit board in communication with the display, the PCB having at least one of a processor and a memory chip; and a carrier clamped between the display and PCB to form an instrument cluster assembly, the display secured to the carrier at multiple fastening points, the carrier is a metallic structure, characterized in that the at least one of the processor and the memory chip engages the carrier and faces the display, wherein the carrier has an average cross-sectional thickness in a range of 2-5 mm. a display configured to graphically depict information; a printed circuit board in communication with the display, the PCB having at least one of a processor and a memory chip; and a carrier clamped between the display and PCB to form an instrument cluster assembly, the display secured to the carrier at multiple fastening points, the carrier is a metallic structure, characterized in that the at least one of the processor and the memory chip engages the carrier and faces the display, wherein the carrier has an average cross-sectional thickness in a range of 2-5 mm.
A photoelectrochemical reaction device, comprising: an electrolytic solution; an oxidation electrode layer immersed in the electrolytic solution; a reduction electrode layer immersed in the electrolytic solution; and a photovoltaic layer having a first face electrically connected to the oxidation electrode layer and a second face electrically connected to the reduction electrode layer, and performing charge separation by energy of light irradiated on the first face or the second face, wherein the reduction electrode layer includes a conductive layer having a porous structure with a fine pore distribution of 5 μm or more and 10 μm or less; and a reduction catalyst layer stacked on the conductive layer, the reduction catalyst layer having a porous structure with a fine pore distribution of 5 nm or more and 100 nm or less and containing fine particles of a reduction catalyst of 100 nm or less, the fine particles of the reduction catalyst are selected from Au, Ag, Cu, Pt, Ni, Zn and Pd. an electrolytic solution; an oxidation electrode layer immersed in the electrolytic solution; a reduction electrode layer immersed in the electrolytic solution; and a photovoltaic layer having a first face electrically connected to the oxidation electrode layer and a second face electrically connected to the reduction electrode layer, and performing charge separation by energy of light irradiated on the first face or the second face, a conductive layer having a porous structure with a fine pore distribution of 5 μm or more and 10 μm or less; and a reduction catalyst layer stacked on the conductive layer, the reduction catalyst layer having a porous structure with a fine pore distribution of 5 nm or more and 100 nm or less and containing fine particles of a reduction catalyst of 100 nm or less, the fine particles of the reduction catalyst are selected from Au, Ag, Cu, Pt, Ni, Zn and Pd.