mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a window for mounting comprising: arranging the window on a receiving section of a sheet member, which further comprises two side sections (3, 31), end sections and two lid sections each connected to a side section of the sheet member, folding the side sections, end sections and lid sections along fold lines to form a box surrounding the window, said lid sections constituting the top surface of the box, and said receiving section being intended for carrying the window, and joining at least some of the sections to stabilize the box, where the two lid sections (5, 51) are folded so that the joint between them is displaced in relation to the centre of the box, the joint being located at a distance from the nearest side section corresponding to at least 1/4 of the width of the receiving section, characterized in that end sections project from each lid section (5,51) and from the receiving section and/or side sections (3,31), in that weakenings are provided at fold lines separating lid sections from end sections, which project from the lid sections, and that the sheet member is torn by hand at said weakening before mounting the window, and in that at least one recess, opening or cut-out used for the formation of a recess or opening at the edge of at least one of the lid sections is used as a grip when unpacking the window. arranging the window on a receiving section of a sheet member, which further comprises two side sections (3, 31), end sections and two lid sections each connected to a side section of the sheet member, folding the side sections, end sections and lid sections along fold lines to form a box surrounding the window, said lid sections constituting the top surface of the box, and said receiving section being intended for carrying the window, and joining at least some of the sections to stabilize the box, where the two lid sections (5, 51) are folded so that the joint between them is displaced in relation to the centre of the box, the joint being located at a distance from the nearest side section corresponding to at least 1/4 of the width of the receiving section, characterized in that end sections project from each lid section (5,51) and from the receiving section and/or side sections (3,31), in that weakenings are provided at fold lines separating lid sections from end sections, which project from the lid sections, and that the sheet member is torn by hand at said weakening before mounting the window, and in that at least one recess, opening or cut-out used for the formation of a recess or opening at the edge of at least one of the lid sections is used as a grip when unpacking the window.
Method for preparing an antimicrobially active composite material, in which method at least one molybdenum-containing inorganic compound is combined with at least one further material, characterised in that at least one compound of total formula A n+ Z MO 4 is used as the inorganic molybdenum-containing compound, in which formula M represents Mo, A denotes a metal ion other than Mo from a group consisting of Na, K, Mg, Ca, Ag, Cu, Bi, V, Ti and Zn, and n*z=+2, the at least one molybdenum-containing inorganic compound of total formula A n+ Z MO 4 being used in the form of particles having an average particle size between 0.1 μm and 1.00 μm and characterised in that, in addition to the at least one molybdenum-containing inorganic compound, at least one hydrophilising agent and/or hygroscopic agent is arranged at least in the region of the surface of the composite material, the hydrophilising agent and/or hygroscopic agent comprising silica gel or pyrogenic silicon dioxide.
A method for recycling wastewater, comprising: adding ozone to wastewater as raw water so that a concentration of remaining ozone before membrane filtration is within the range of 0.01 to 1.0mg/L, to thereby contact the ozone with fine solids in the wastewater so as to modify the surface properties of the fine solids to be easy coagulating; adding a coagulant to coagulate the fine solids; and membrane filtrating the wastewater through an ozone-resistant separation membrane to give reusable water in which a concentration of remaining ozone after membrane-filtration is less than 0.5 mg/L.
A device for the contactless and non-destructive testing of a surface by measuring the infrared radiation thereof with one or more incoherent electromagnetic radiation sources and with a detector arranged on a detection axis, wherein the radiation source or sources is, resp. are arranged at a radial distance from the detection axis at a distance from a testing area, and wherein this or these radiation sources are configured to generate a pulse-like or intensity-modulated excitation radiation which can be applied to the surface to be tested in the testing area, wherein the detection radiation emitted by the measuring area of the surface to be tested can be fed to the detector, wherein the device is configured to feed the excitation radiation from the radiation sources to the testing area at an inclination to the detection axis, wherein the detector on the detection axis is arranged spatially further away from the testing area than the radiation source or sources, wherein an imaging device (10, 12) for mapping the testing area onto the measuring surface of the detector is provided on the detection axis, which imaging device is arranged in a recess of an annular radiation source or between the radiation sources, characterised in that one or more optical filter devices are arranged between the radiation source or sources and the testing area, the optical filter devices being configured t guide the excitation radiation to the testing area, wherein the filter devices are configured to absorb one or more spectral ranges of the generated excitation radiation, and in that one or more of the filter devices formed by filter media are used for the dissipation of heat from one or more radiation sources.
Arrangement for producing fuel pellets, comprising a pneumatic steam dryer (1.1;1.2;1.3;1.4) for drying bulk material based on wood and/or peat, wherein said pneumatic steam dryer is adapted to operate above atmospheric pressure, in an overpressure range of 2-5 bar, wherein the pneumatic steam dryer (1.1; 1.2; 1.3; 1.4) comprises - a circulation conduit system which in operation of the pneumatic steam dryer (1.1;1.2;1.3;1.4) is pressurized and filled with steam, - a heat exchanger (6,6') connected into said circulation conduit system for heating said steam, - an inlet feeding device connected to said circulation conduit system for feeding bulk material into said circulation conduit system, - a drying conduit connected into said circulation conduit system wherein said bulk material is dried by heat transfer from said steam thereby forming surplus steam, - separating means (12;12') connected to said drying conduit for separating said bulk material from said steam, said separating means comprising a steam outlet and a bulk material outlet (15;15'), - a fan connected into said circulation conduit system for pneumatically conveying said bulk material suspended in said steam from said inlet feeding device to said separating means (12;12'), characterized in that a pelleting device (16.1;16.2) is integrated in the circulation conduit system, wherein said pelleting device (16.1;16.2) is connected in series to said bulk material outlet (15;15') of the separating means (12;12'), such that, when in operation, the total mass flow of bulk material is conveyed from the separating means (12;12') to the pelleting device (16.1;16.2) and the inner environment inside the pelleting device is pressurized and filled with steam. - a circulation conduit system which in operation of the pneumatic steam dryer (1.1;1.2;1.3;1.4) is pressurized and filled with steam, - a heat exchanger (6,6') connected into said circulation conduit system for heating said steam, - an inlet feeding device connected to said circulation conduit system for feeding bulk material into said circulation conduit system, - a drying conduit connected into said circulation conduit system wherein said bulk material is dried by heat transfer from said steam thereby forming surplus steam, - separating means (12;12') connected to said drying conduit for separating said bulk material from said steam, said separating means comprising a steam outlet and a bulk material outlet (15;15'), - a fan connected into said circulation conduit system for pneumatically conveying said bulk material suspended in said steam from said inlet feeding device to said separating means (12;12'),
A PCIe switching device, comprising an upstream port, a port agent apparatus, and a plurality of first downstream ports, wherein the upstream port is connected to the port agent apparatus, the port agent apparatus is connected to the plurality of first downstream ports, and each first downstream port is configured to connect to a PCIe endpoint device respectively; and links between the plurality of first downstream ports and PCIe endpoint devices connected to the plurality of first downstream ports share a same bus number, further comprising one or more second downstream ports, wherein the one or more second downstream ports are connected to the upstream port, characterized in that the port agent apparatus and the plurality of first downstream ports have a same subordinate bus number. the upstream port is connected to the port agent apparatus, the port agent apparatus is connected to the plurality of first downstream ports, and each first downstream port is configured to connect to a PCIe endpoint device respectively; and links between the plurality of first downstream ports and PCIe endpoint devices connected to the plurality of first downstream ports share a same bus number, further comprising one or more second downstream ports, wherein the one or more second downstream ports are connected to the upstream port, characterized in that the port agent apparatus and the plurality of first downstream ports have a same subordinate bus number.
Rope knotting arrangement comprising a first rope path having first clamping means, a second rope path having second clamping means, and knot forming means, wherein the knot forming means and the rope paths (27, 28) are movable relative to each other characterized in that the knot forming means comprise a rope passage in a rope cover which is connected to a rope cover actuator, wherein the rope cover is movable from a position in which the rope passage is covered by the rope cover into a position in which the rope is uncovered, and the knot forming means comprise at least a rod outside the rope cover which is connected to a rod actuator, wherein a gap is provided between the rope cover and the rod, and the rod can be retracted under the action of the rod actuator.
A resin composition for sliding member, comprising 40 to 80 mass% of a polyphenylene sulfide resin and, as additives, 15 to 40 mass% of a polytetrafluoroethylene resin, 2 to 20 mass% of an ultra-high molecular weight polyethylene resin, 0.1 to 5 mass% of a modified polyolefin resin, and 0.5 to 5 mass% of an amorphous polymer.
An apparatus for controlling a vehicle, comprising: a detection section (20, 21) configured to detect a parameter that indicates a traveling state of the vehicle that varies according to an amount of accelerator operation; a control section configured to execute, during operation of a power source of the vehicle, an output reduction process of reducing an output from the power source based on the parameter, said control section is characterized, when there is an abnormality in the detection section (20, 21), by being configured to set a degree of reduction in output by the output reduction process to be smaller than that in a case in which there is no abnormality in the detection section (20, 21). a detection section (20, 21) configured to detect a parameter that indicates a traveling state of the vehicle that varies according to an amount of accelerator operation; a control section configured to execute, during operation of a power source of the vehicle, an output reduction process of reducing an output from the power source based on the parameter, said control section is characterized, when there is an abnormality in the detection section (20, 21), by being configured to set a degree of reduction in output by the output reduction process to be smaller than that in a case in which there is no abnormality in the detection section (20, 21).
A retrovirus producer cell which expresses a tagging protein at the cell surface, such that retroviral vectors produced by the cell are tagged with the tagging protein, wherein the tagging protein comprises: i) a binding domain which binds to streptavidin ii) a spacer; and iii) a membrane targeting domain such that, when incorporated into a retroviral vector, the tagging protein facilitates purification of the retroviral vector from cellular supernatant via binding of the tagging protein to streptavidin; wherein the binding domain comprises a biotin mimic having the sequence shown as SEQ ID No. 43 which binds streptavidin with a lower affinity than biotin, so that biotin may be used to elute streptavidin-captured retroviral vectors produced by the cell; and wherein the membrane targeting domain comprises a transmembrane domain and an endodomain. i) a binding domain which binds to streptavidin ii) a spacer; and iii) a membrane targeting domain
A cathode comprising a sulphur-containing organosilane compound or a mixture of sulphur-containing organosilane compounds grafted on the surface of the cathode, wherein the sulphur-containing organosilane compound has the general molecular formula: wherein R 1, R 2 and R 3 are independently selected from C 1-12 alkoxy, acyloxy, aryloxy, alkyl, aryl, hydroxyl and halogen groups; wherein R 4 is independently selected from a divalent hydrocarbon, preferably a C 1-18 alkylene or arylene; wherein n is independently selected from an integer from 2 to 8; wherein R 5 is selected from a divalent C 2-8 hydrocarbon, preferably alkylene or arylene. wherein R 1, R 2 and R 3 are independently selected from C 1-12 alkoxy, acyloxy, aryloxy, alkyl, aryl, hydroxyl and halogen groups; wherein R 4 is independently selected from a divalent hydrocarbon, preferably a C 1-18 alkylene or arylene; wherein n is independently selected from an integer from 2 to 8; wherein R 5 is selected from a divalent C 2-8 hydrocarbon, preferably alkylene or arylene.
A transfer device for a workpiece, in particular for transferring workpieces between tools of two adjacent presses, said transfer device including: a) a frame; b) a first pivot arm with a first end and a second end; c) a first rotational axis which connects the first end of the first pivot arm pivotably to the frame; d) a first slide which is arranged on the pivot arm so as to be linearly displaceable along a second linear axis; e) a holding device for a workpiece which is connected to the first slide so as to be rotatable relative to the pivot arm by means of a third rotational axis; f) a second rotational axis which is mounted on the frame so as to be displaceable substantially in the horizontal direction, wherein the pivot arm is connected to the second pivot axis so as to be rotatable in a region which is located in the direction of the second end from the first end characterized in that g) the first pivot arm is mounted so as to be rotatable relative to a second pivot arm by means of the first rotational axis, wherein the second pivot arm is mounted on the frame so as to be rotatable by means of a fourth rotational axis, wherein the fourth rotational axis is preferably parallel to the first rotational axis. a) a frame; b) a first pivot arm with a first end and a second end; c) a first rotational axis which connects the first end of the first pivot arm pivotably to the frame; d) a first slide which is arranged on the pivot arm so as to be linearly displaceable along a second linear axis; e) a holding device for a workpiece which is connected to the first slide so as to be rotatable relative to the pivot arm by means of a third rotational axis; f) a second rotational axis which is mounted on the frame so as to be displaceable substantially in the horizontal direction, wherein the pivot arm is connected to the second pivot axis so as to be rotatable in a region which is located in the direction of the second end from the first end characterized in that g) the first pivot arm is mounted so as to be rotatable relative to a second pivot arm by means of the first rotational axis, wherein the second pivot arm is mounted on the frame so as to be rotatable by means of a fourth rotational axis, wherein the fourth rotational axis is preferably parallel to the first rotational axis.
Process for recovering and upgrading unsaturated fluorinated hydrocarbons, comprising the steps of: a) providing a foam M1 consisting of pores containing a composition C1 comprising at least one unsaturated fluorinated hydrocarbon; b1) optionally grinding or compressing said foam M1 provided in step a) to form a ground foam or a compressed foam; b2) optionally recovering at least a portion of said composition C1 comprising at least one unsaturated fluorinated hydrocarbon and released during step b1); c) depolymerizing or dissolving said foam M1 provided in step a) or said ground or compressed foam obtained in step b1); d) recovering at least a portion of said composition C1 comprising at least one unsaturated fluorinated hydrocarbon and released in gaseous form during step c) and optionally mixing the latter with said at least a portion of the composition recovered in step b2) to form a stream A comprising at least one unsaturated fluorinated hydrocarbon; e) recovering and separating said stream A formed in step d) into a plurality of streams of which at least one stream B1 comprises said at least one unsaturated fluorinated hydrocarbon. a) providing a foam M1 consisting of pores containing a composition C1 comprising at least one unsaturated fluorinated hydrocarbon; b1) optionally grinding or compressing said foam M1 provided in step a) to form a ground foam or a compressed foam; b2) optionally recovering at least a portion of said composition C1 comprising at least one unsaturated fluorinated hydrocarbon and released during step b1); c) depolymerizing or dissolving said foam M1 provided in step a) or said ground or compressed foam obtained in step b1); d) recovering at least a portion of said composition C1 comprising at least one unsaturated fluorinated hydrocarbon and released in gaseous form during step c) and optionally mixing the latter with said at least a portion of the composition recovered in step b2) to form a stream A comprising at least one unsaturated fluorinated hydrocarbon; e) recovering and separating said stream A formed in step d) into a plurality of streams of which at least one stream B1 comprises said at least one unsaturated fluorinated hydrocarbon.
An inventory control device comprising: a passive receiver and a functional module wherein the passive receiver comprises an antenna configured to wirelessly receive an initiation signal and a capacitor; wherein said antenna is a first antenna and has an associated energy field from a remote control system and that said passive receiver further comprises a signal generator configured to be powered solely by the capacitor and to output a mode change signal; and said functional module, comprises: a second antenna configured to wirelessly receive a data signal from the remote control system, the data signal comprising identification, ID, data; a self-contained power source; and a controller coupled to the second antenna, the power source, and the signal generator, and configured to be powered by the self-contained power source when in an active mode, the controller configured to receive the mode change signal from the signal generator and to change from an inactive mode, in which the controller is not responsive to signals received by the second antenna, to the active mode in response to the mode change signal, the controller drawing more power from the power source in the active mode than in the inactive mode. a passive receiver and a functional module wherein the passive receiver comprises an antenna configured to wirelessly receive an initiation signal and a capacitor; wherein said antenna is a first antenna and has an associated energy field from a remote control system and that said passive receiver further comprises a signal generator configured to be powered solely by the capacitor and to output a mode change signal; and said functional module, comprises: a second antenna configured to wirelessly receive a data signal from the remote control system, the data signal comprising identification, ID, data; a self-contained power source; and a controller coupled to the second antenna, the power source, and the signal generator, and configured to be powered by the self-contained power source when in an active mode, the controller configured to receive the mode change signal from the signal generator and to change from an inactive mode, in which the controller is not responsive to signals received by the second antenna, to the active mode in response to the mode change signal, the controller drawing more power from the power source in the active mode than in the inactive mode. a second antenna configured to wirelessly receive a data signal from the remote control system, the data signal comprising identification, ID, data; a self-contained power source; and a controller coupled to the second antenna, the power source, and the signal generator, and configured to be powered by the self-contained power source when in an active mode, the controller configured to receive the mode change signal from the signal generator and to change from an inactive mode, in which the controller is not responsive to signals received by the second antenna, to the active mode in response to the mode change signal, the controller drawing more power from the power source in the active mode than in the inactive mode.
A self-propelled forage harvester with a feed device, a chopping device comprising a chopping drum with chopping blades and a counter cutter for the comminution of harvested material, a propulsion unit as well as a driver assistance system for controlling at least the chopping device, wherein the driver assistance system comprises a memory for storing data and a computing device for processing the data stored in the memory, wherein the chopping device together with the driver assistance system form an automated chopping system in which the computing device is configured to continuously determine a compaction of the comminuted harvested material on a silo which can be achieved on the basis of harvested material parameters acquired during a harvesting process in order to autonomously determine and to specify a cutting length to be adapted for maintaining an almost constant compressibility on the silo, wherein the automated chopping system coordinates all of the working groups, i.e. the operating parameters of at least the feed device and the chopping device, which cooperate in order to maintain an almost constant compressibility of the harvested material without the need for external input from an operative, characterized in that a plurality of harvesting process strategies (33, 34, 35) are stored in the memory in a selectable manner and in addition, in order to execute the respective selected harvesting process strategy (33, 34, 35), the computing device is configured to autonomously determine an operating parameter which influences the cutting length, feed rate of the feed device, rate of rotation of the chopping device or drive speed of the propulsion unit, and to specify a respective working group which corresponds to the operating parameter.