mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a receiver that is configured to receive a first reference signal, a second reference signal and a control signal, wherein the first reference signal is a Cell-Specific Reference Signal, CRS, the second reference signal is a Demodulation Reference Signal, DMRS, and the control signal is machine-type communication physical downlink control channel, MPDCCH; and a processer that is configured to decode the control signal based on the first reference signal and the second reference signal, wherein the second reference signal on an antenna port is associated with a precoder, and the antenna port of the second reference signal and the precoder for the antenna port of the second reference signal are adopted within a time duration and a frequency band, wherein the precoder for the antenna port of the second reference signal is selected in a circular order from a precoder set according to at least one of: the time duration, the frequency band, and the antenna port of the second reference signal, wherein the precoder set is selected according to a total available antenna port number of the first reference signal. a receiver that is configured to receive a first reference signal, a second reference signal and a control signal, wherein the first reference signal is a Cell-Specific Reference Signal, CRS, the second reference signal is a Demodulation Reference Signal, DMRS, and the control signal is machine-type communication physical downlink control channel, MPDCCH; and a processer that is configured to decode the control signal based on the first reference signal and the second reference signal, wherein the second reference signal on an antenna port is associated with a precoder, and the antenna port of the second reference signal and the precoder for the antenna port of the second reference signal are adopted within a time duration and a frequency band, wherein the precoder for the antenna port of the second reference signal is selected in a circular order from a precoder set according to at least one of: the time duration, the frequency band, and the antenna port of the second reference signal, wherein the precoder set is selected according to a total available antenna port number of the first reference signal.
Dispensing closure for a squeeze type container, said dispensing closure comprising: - a dispensing part attached or attachable to the container, said dispensing part having an external wall and having a dispensing passage for dispensing content from the container, - a support base for receiving the dispensing part and to support the container standing upside down, said support base having a support wall to support the external wall of the dispensing part and a bottom connected at a circumference to the support wall, and said support base having a stopper (20; 31) integrally formed with it and located on the bottom, said stopper (20; 31) being adapted to be arranged at an outer end of the dispensing passage to close the dispensing passage of the dispensing part, wherein the dispensing closure has a coupled state in which the support base is coupled to the dispensing part by a snap connection (21, 22; 32, 33), and wherein the dispensing closure has an uncoupled state in which the snap connection (21, 22; 32, 33) is inactive and in which the dispensing part can be freely removed from the support base, characterized in that the dispensing closure has said snap connection between the stopper and the dispensing passage, and in that in the uncoupled state of the dispensing closure the external wall of the dispensing part rests on the support wall of the support base, wherein the external wall is at least partially deformable or the support wall is deformable, so as to allow pushing the dispensing part from the uncoupled state further in the support base to couple the dispensing part to the support base by the snap connection, or wherein the bottom comprises a deformable diaphragm so as to allow in the uncoupled state moving the stopper to the dispensing passage to couple the dispensing part to the support base by the snap connection. - a dispensing part attached or attachable to the container, said dispensing part having an external wall and having a dispensing passage for dispensing content from the container, - a support base for receiving the dispensing part and to support the container standing upside down, said support base having a support wall to support the external wall of the dispensing part and a bottom connected at a circumference to the support wall, and said support base having a stopper (20; 31) integrally formed with it and located on the bottom, said stopper (20; 31) being adapted to be arranged at an outer end of the dispensing passage to close the dispensing passage of the dispensing part,
Method of direct reduction of metal oxides using a reduction gas based on at least one precursor gas, wherein at least one precursor gas (15, 22) is based on reformer gas obtained by catalytic reforming of hydrocarbonaceous gas in a reformer, characterized in that preparation of the reduction gas involves heating at least one precursor gas based on reformer gas, and optionally additionally also one or more further precursor gases, by means of electrical energy, wherein at least a portion of the electrical energy is introduced into the precursor gas (15, 22) by means of plasma. wherein at least one precursor gas (15, 22) is based on reformer gas obtained by catalytic reforming of hydrocarbonaceous gas in a reformer, characterized in that preparation of the reduction gas involves heating at least one precursor gas based on reformer gas, and optionally additionally also one or more further precursor gases, by means of electrical energy, wherein at least a portion of the electrical energy is introduced into the precursor gas (15, 22) by means of plasma.
An apparatus for controlling a screen image in a mobile communication terminal, comprising: a display for displaying an enlarged screen image; and a controller adapted for, when an input for enlarging a screen image is detected, enlarging the screen image in a position in which the input for enlarging the screen image is detected, and displaying the enlarged screen image on the display, wherein the input is an input from a user of the mobile communication terminal; wherein the controller is adapted for performing an operation corresponding to a second input detected after displaying the enlarged screen image; and if the second input is detected, the controller is adapted for restoring the enlarged screen image to an original size thereof, and wherein when the second input is detected in a position for inputting the performing of an application program, the controller is adapted for restoring the enlarged screen image to an original size thereof, and performing the application program. a display for displaying an enlarged screen image; and a controller adapted for, when an input for enlarging a screen image is detected, enlarging the screen image in a position in which the input for enlarging the screen image is detected, and displaying the enlarged screen image on the display, wherein the input is an input from a user of the mobile communication terminal; wherein the controller is adapted for performing an operation corresponding to a second input detected after displaying the enlarged screen image; and if the second input is detected, the controller is adapted for restoring the enlarged screen image to an original size thereof, and wherein when the second input is detected in a position for inputting the performing of an application program, the controller is adapted for restoring the enlarged screen image to an original size thereof, and performing the application program.
A fuel system comprising: a first pump; a first valve that receives outflow from the first pump; a second valve that receives outflow from the first valve, the second valve further receiving a pressure signal from the first valve to open and close the second valve; a second pump; an actuator that receives outflow from the second pump; a fuel circuit connecting outflow of the first pump to outflow of the second pump through a sharing port; and a third valve that receives outflow from the second pump, the third valve further receiving a pressure signal from the first valve to shift the third valve between two states, wherein the first state provides outflow of the third valve to inflow of the second pump and opens the sharing port such that outflow of the first pump is routed through the sharing port and fuel circuit to join with outflow of the second pump, and the second state provides outflow of the third valve to outflow of the first pump and closes sharing port and fuel circuit. a first pump; a first valve that receives outflow from the first pump; a second valve that receives outflow from the first valve, the second valve further receiving a pressure signal from the first valve to open and close the second valve; a second pump; an actuator that receives outflow from the second pump; a fuel circuit connecting outflow of the first pump to outflow of the second pump through a sharing port; and a third valve that receives outflow from the second pump, the third valve further receiving a pressure signal from the first valve to shift the third valve between two states, wherein the first state provides outflow of the third valve to inflow of the second pump and opens the sharing port such that outflow of the first pump is routed through the sharing port and fuel circuit to join with outflow of the second pump, and the second state provides outflow of the third valve to outflow of the first pump and closes sharing port and fuel circuit.
A polymerization process comprising: contacting propylene and optionally at least one other olefin with a catalyst composition in a first polymerization reactor under gas phase polymerization conditions, the catalyst composition comprising a procatalyst, a cocatalyst and a mixed external electron donor (M-EED) comprising a first selectivity control agent, a second selectivity control agent, and an activity limiting agent; forming, in the first polymerization reactor, an active propylene-based polymer having a melt flow rate greater than 100g/10 min as measured in accordance with ASTM D1238-01 (230°C, 2.16 kg); introducing the active propylene-based polymer into a second polymerization reactor; contacting the active propylene-based polymer with at least one olefin in the second reactor under polymerization conditions; and forming a propylene impact copolymer having a melt flow rate greater than 60 g/10 min. contacting propylene and optionally at least one other olefin with a catalyst composition in a first polymerization reactor under gas phase polymerization conditions, the catalyst composition comprising a procatalyst, a cocatalyst and a mixed external electron donor (M-EED) comprising a first selectivity control agent, a second selectivity control agent, and an activity limiting agent; forming, in the first polymerization reactor, an active propylene-based polymer having a melt flow rate greater than 100g/10 min as measured in accordance with ASTM D1238-01 (230°C, 2.16 kg); introducing the active propylene-based polymer into a second polymerization reactor; contacting the active propylene-based polymer with at least one olefin in the second reactor under polymerization conditions; and forming a propylene impact copolymer having a melt flow rate greater than 60 g/10 min.
A hydraulic barrier composition comprising: clay-polymer granules comprising a water-swellable clay and a polymer system, wherein the polymer system comprises a cross-linked polymer portion and a linear polymer portion, the polymer system comprises low molecular weight polymer chains having a molecular weight of 6 x 10 5 g/mol or less and high molecular weight polymer chains having a molecular weight of greater than 6 x 10 5 g/mol as determined by size exclusion chromatography, the polymer system comprising acrylamido-methyl-propane sulfonate (AMPS), and wherein the composition has a hydraulic conductivity of 1 x 10 -7 cm/sec or less when exposed to leachates having one or more of an ionic strength of 0.02 mol/liter to 3 mol/liter and a ratio of monovalent to divalent ions expressed as the square root molarity and calculated as in the description of less than 50 M 1/2. clay-polymer granules comprising a water-swellable clay and a polymer system, wherein the polymer system comprises a cross-linked polymer portion and a linear polymer portion, the polymer system comprises low molecular weight polymer chains having a molecular weight of 6 x 10 5 g/mol or less and high molecular weight polymer chains having a molecular weight of greater than 6 x 10 5 g/mol as determined by size exclusion chromatography, the polymer system comprising acrylamido-methyl-propane sulfonate (AMPS), and wherein the composition has a hydraulic conductivity of 1 x 10 -7 cm/sec or less when exposed to leachates having one or more of an ionic strength of 0.02 mol/liter to 3 mol/liter and a ratio of monovalent to divalent ions expressed as the square root molarity and calculated as in the description of less than 50 M 1/2.
A steam cleaning appliance comprising: a water tank; a boiler in fluid communication with the water tank, the boiler comprising a boiler water input for receiving water from the water tank characterized in that the boiler comprises a boiler superheated steam output for exhausting superheated steam and a water heating path connected between the water input and the superheated steam output; wherein said appliance further comprises a steam cooling element comprising a superheated steam input in fluid communication with the superheated steam output; a wet steam output; and a steam cooling path between the superheated steam input and the wet steam output; wherein the steam cooling element is arranged to transfer heat away from the superheated steam and cools the superheated steam into reduced enthalpy steam or wet steam as the superheated steam flows along the steam cooling path. a water tank; a boiler in fluid communication with the water tank, the boiler comprising a boiler water input for receiving water from the water tank characterized in that the boiler comprises a boiler superheated steam output for exhausting superheated steam and a water heating path connected between the water input and the superheated steam output; wherein said appliance further comprises a steam cooling element comprising a superheated steam input in fluid communication with the superheated steam output; a wet steam output; and a steam cooling path between the superheated steam input and the wet steam output; wherein the steam cooling element is arranged to transfer heat away from the superheated steam and cools the superheated steam into reduced enthalpy steam or wet steam as the superheated steam flows along the steam cooling path.
A method for manufacturing a dental superstructure or part thereof, comprising the steps of (i) making a dental imprint from the mouth of a subject; (ii) manufacturing a working model from said dental imprint and mounting an implant analog in the working model; (iii) attaching a screw channel directing device, comprising a screw channel part and an implant cooperating part, said screw channel part comprising a screw channel mouth in the distal end, and a screw member seat with a screw hole in the proximal end, wherein the proximal end of the screw channel part is bowl shaped, such that the inner bottom surface has a concave shape and its outer bottom surface has a convex shape, and wherein the screw hole of the screw member seat is a long hole, and wherein said implant cooperating part is collar-shaped with an implant seat at its proximal end, and a distal concave screw channel part seat, wherein the screw channel part seat has a radius corresponding to the radius of the outer bottom surface of the screw channel part to form a ball joint, such that the central axis of the screw channel part may be tilted/angled in relation to a central axis of the implant cooperating part, to the implant analog in the working model; (iv) tilting the screw channel part in relation to the implant cooperating part into a desired angle; (v) shaping a master superstructure or part thereof onto the screw channel directing device; (vi) forming a mold based on the master superstructure or part thereof; and (vii) casting or CAD/CAM shaping of the dental superstructure or part thereof. (i) making a dental imprint from the mouth of a subject; (ii) manufacturing a working model from said dental imprint and mounting an implant analog in the working model; (iii) attaching a screw channel directing device, comprising a screw channel part and an implant cooperating part, said screw channel part comprising a screw channel mouth in the distal end, and a screw member seat with a screw hole in the proximal end, wherein the proximal end of the screw channel part is bowl shaped, such that the inner bottom surface has a concave shape and its outer bottom surface has a convex shape, and wherein the screw hole of the screw member seat is a long hole, and wherein said implant cooperating part is collar-shaped with an implant seat at its proximal end, and a distal concave screw channel part seat, wherein the screw channel part seat has a radius corresponding to the radius of the outer bottom surface of the screw channel part to form a ball joint, such that the central axis of the screw channel part may be tilted/angled in relation to a central axis of the implant cooperating part, to the implant analog in the working model; (iv) tilting the screw channel part in relation to the implant cooperating part into a desired angle; (v) shaping a master superstructure or part thereof onto the screw channel directing device; (vi) forming a mold based on the master superstructure or part thereof; and (vii) casting or CAD/CAM shaping of the dental superstructure or part thereof.
A tissue resection device comprising: a shaft having a proximal end and a distal end; at least one energy source positioned in an energy delivery region on the shaft configured to deliver energy radially outwardly; and an insufflation lumen on the shaft configured to introduce a fluid to insufflate tissue to space tissue away from the energy source; an aspiration lumen on the shaft configured to remove resected tissue; wherein the energy source is adapted to be translated and rotated relative to the shaft. a shaft having a proximal end and a distal end; at least one energy source positioned in an energy delivery region on the shaft configured to deliver energy radially outwardly; and an insufflation lumen on the shaft configured to introduce a fluid to insufflate tissue to space tissue away from the energy source; an aspiration lumen on the shaft configured to remove resected tissue; wherein the energy source is adapted to be translated and rotated relative to the shaft.
Spectrometer having a first light source which generates first light radiation in a first wavelength range, a second light source which generates second light radiation in a second, different wavelength range, a mirror unit for deflecting the light beams (24, 26) into a measuring path, the radiation (24, 26) of both wavelength ranges traversing the measuring path on the same optical path, a detector for detecting the radiation (24, 26) passing through the measuring path and having an evaluation unit for evaluating the radiation (24, 26) impinging on the detector and determining a concentration of a sample gas component present in the measuring path, and the mirror unit being designed as a micro-mirror array and a single micro-mirror deflecting in each case only part of the radiation (24, 26), characterised in that the first light beam of the first light source is not parallel to the second light beam of the second light source, a control unit is provided for the mirror unit, with which a wavelength selection is effected by switching between a channel formed by the light beams in the first wavelength range and a channel formed by the light beams in the second wavelength range, and the micro mirrors of the mirror array are individually controllable via the control unit, so that in each case only geometrical subregions of the cross-section of one of the two light beams (24 and 26) can be deflected into the measuring section, and the evaluation unit is designed to carry out a linearity check of the detector from the intensities on the detector determined by the geometrical parts and/or to carry out a homogeneity measurement of the corresponding light beam (24 or 26).
A glass film ribbon manufacturing method, comprising: cleaving a glass film ribbon by a cleaving unit, which is arranged on a conveyance path of a transverse conveyance unit, along a preset cleaving line extending in a longitudinal direction while conveying the glass film ribbon in a transverse direction by the transverse conveyance unit; and smoothing, before the cleaving the glass film ribbon by the cleaving unit, a wrinkle generated in the glass film ribbon by a wrinkle-smoothing unit arranged in the transverse conveyance unit, characterized in that the glass film ribbon that is being conveyed runs on the wrinkle-smoothing unit and thereby is lifted up from a lower surface side. cleaving a glass film ribbon by a cleaving unit, which is arranged on a conveyance path of a transverse conveyance unit, along a preset cleaving line extending in a longitudinal direction while conveying the glass film ribbon in a transverse direction by the transverse conveyance unit; and smoothing, before the cleaving the glass film ribbon by the cleaving unit, a wrinkle generated in the glass film ribbon by a wrinkle-smoothing unit arranged in the transverse conveyance unit, characterized in that the glass film ribbon that is being conveyed runs on the wrinkle-smoothing unit and thereby is lifted up from a lower surface side.