mhurhangee/ep-ind-claims huggingface dataset:
Device for an impeller for power generation by means of wind power, wherein a wind wheel for power generation by means of high-altitude wind is present and the impeller is thereby supported by a single blade pull rope, wherein said wind wheel utilizes the far more energetic high-altitude wind at a height of 200 to 500 m above ground for power generation, wherein the blade pull rope is provided, wherein the wind flowing against the impeller from below causes the impeller to rotate, thereby increasing the pulling force, wherein the impeller diameter and the angle of attack of the blade are changeable, wherein the diameter of the impeller is changeable depending on the mode of operation, wherein the impeller diameter can be increased, wherein respective individual blades are held by control ropes (60, 61), wherein the individual blades are held by holding ropes leading obliquely to the common center, wherein a flight traction rope takes over the main traction force, characterized in that the angle of attack can be adjusted in a rotation-dependent manner by means of a second blade control rope, wherein, depending on the retraction status of one of the control ropes (60, 61), the blade control rope can be retracted or extended into the blade by means of a reduction gear of 20:1, wherein the control rope (60, 61) can be guided over a deflection pulley, the rotary movement of this deflection pulley driving the reduction gear. wherein the impeller diameter and the angle of attack of the blade are changeable, wherein the diameter of the impeller is changeable depending on the mode of operation, wherein the impeller diameter can be increased, wherein respective individual blades are held by control ropes (60, 61), wherein the individual blades are held by holding ropes leading obliquely to the common center, wherein a flight traction rope takes over the main traction force, characterized in that the angle of attack can be adjusted in a rotation-dependent manner by means of a second blade control rope, wherein, depending on the retraction status of one of the control ropes (60, 61), the blade control rope can be retracted or extended into the blade by means of a reduction gear of 20:1, wherein the control rope (60, 61) can be guided over a deflection pulley, the rotary movement of this deflection pulley driving the reduction gear.
Method for programming a safety controller designed to safely switch an electrical load on and off in accordance with a safety regulation, wherein a programming interface is displayed on a screen, a plurality of encoder and/or actuator symbols is displayed in a first sub-area of the programming interface, each of which is assigned to an encoder or actuator type, an encoder or actuator symbol is selected, an instance (40, 58) of the encoder or actuator symbol is moved to a second sub-area of the programming interface and anchored there, wherein in the second sub-area already selected instances (40, 58) of encoder and actuator symbols are logically linked by means of a logic diagram, characterized in that terminal designations of terminals (4, 5, 10, 12, 14, 16, 18) of the safety controller are displayed in a third sub-area of the programming interface together with their respectively assigned assignment areas, the instance (40, 58) of the selected encoder or actuator symbol is moved over one of the assignment areas before being moved into the second sub-area, and an information is generated that an encoder or actuator type assigned to the selected encoder or actuator symbol is connected to the terminal (4, 5, 10, 12, 14, 16, 18) assigned to one of the assignment areas.
Injection valve for the injection of fuel, comprising: - a fuel feed element for the feed of the fuel, - an electrical rail which runs at least partially parallel to the fuel feed element, and - an injection-moulded encapsulation which surrounds the fuel feed element and the electrical rail, - wherein the injection-moulded encapsulation comprises a longitudinal rib which runs in an axial direction (X-X) of the injection valve and which is arranged on the injection valve opposite the electrical rail with respect to the central axis X-X,of said injection valve. - a fuel feed element for the feed of the fuel, - an electrical rail which runs at least partially parallel to the fuel feed element, and - an injection-moulded encapsulation which surrounds the fuel feed element and the electrical rail, - wherein the injection-moulded encapsulation comprises a longitudinal rib which runs in an axial direction (X-X) of the injection valve and which is arranged on the injection valve opposite the electrical rail with respect to the central axis X-X,of said injection valve.
An air purification system comprising: a substrate; a gold/titanium dioxide coating applied on said substrate, said gold/titanium dioxide coating including nano-sized gold particles on titanium dioxide, said nano-sized particles having a size less than 3 nanometers; and a light source to activate said gold/titanium dioxide coating, wherein said gold/titanium dioxide coating oxidizes contaminants that are adsorbed onto said gold/titanium dioxide coating when activated by said light source, characterised in that: said gold/titanium dioxide coating includes a dopant loaded on the surface of the titanium dioxide for preventing migration of the gold particles on the surface of the titanium dioxide, said dopant comprising at least one of WO 3, ZnO, CdS, SrTiO 3, Fe 2 O 3, V 2 O 5, SnO 2, FeTiO 3, PbO, CeO 2, CuO, SiO 2, Al 2 O 3, MnO x, Cr 2 O 3, and ZrO 2. a substrate; a gold/titanium dioxide coating applied on said substrate, said gold/titanium dioxide coating including nano-sized gold particles on titanium dioxide, said nano-sized particles having a size less than 3 nanometers; and a light source to activate said gold/titanium dioxide coating,
Kit for mounting a piece of furniture comprising. - at least a first elongate part and a second elongate part each having a longitudinal axis and at least one longitudinal groove parallel to this longitudinal axis; the two longitudinal grooves having the same cross-section; the first elongate part having, at a longitudinal end, a stud capable of being inserted into the longitudinal groove of the second elongate part; a first, longitudinal hole being provided in the stud and a second, transverse hole being provided in the first elongate part and opening into the first longitudinal hole; a third, transverse hole being provided in the longitudinal groove of the second elongate part; - a first fastening element able to partially penetrate into the first hole and partially into the third hole; and - a second fastening element able to penetrate at least partially into the second hole; the first and second fastening elements (7, 8) being able to cooperate with each other to hold the first and second elongate parts (1, 4) together; characterised in that it further comprises means (10, 11) for reinforcing the assembly of the first and second elongate parts (1, 4), these reinforcement means comprising two brackets, able to be inserted at least partially into said two longitudinal grooves by being superimposed on one another, as well as means for spacing the two brackets apart from one another, when they are inserted in a superimposed manner in said two longitudinal grooves. - at least a first elongate part and a second elongate part each having a longitudinal axis and at least one longitudinal groove parallel to this longitudinal axis; the two longitudinal grooves having the same cross-section; the first elongate part having, at a longitudinal end, a stud capable of being inserted into the longitudinal groove of the second elongate part; a first, longitudinal hole being provided in the stud and a second, transverse hole being provided in the first elongate part and opening into the first longitudinal hole; a third, transverse hole being provided in the longitudinal groove of the second elongate part; - a first fastening element able to partially penetrate into the first hole and partially into the third hole; and - a second fastening element able to penetrate at least partially into the second hole; the first and second fastening elements (7, 8) being able to cooperate with each other to hold the first and second elongate parts (1, 4) together; characterised in that it further comprises means (10, 11) for reinforcing the assembly of the first and second elongate parts (1, 4), these reinforcement means comprising two brackets, able to be inserted at least partially into said two longitudinal grooves by being superimposed on one another, as well as means for spacing the two brackets apart from one another, when they are inserted in a superimposed manner in said two longitudinal grooves.
A method for receiving uplink control information, UCI, in a wireless communication system, the method performed by a base station, and comprising: transmitting a value of a scaling factor through a radio resource control, RRC, signal to a user equipment, UE; and receiving the UCI on a physical uplink shared channel, PUSCH, from the UE, wherein the number of coded symbols for the UCI is determined based on the minimum between (i) a first value which is determined based on a payload size of the UCI multiplied by an offset value related to a coding rate, and (ii) a second value which is determined based on the scaling factor multiplied by a total amount of resource elements allocated for the PUSCH receiving the UCI. transmitting a value of a scaling factor through a radio resource control, RRC, signal to a user equipment, UE; and receiving the UCI on a physical uplink shared channel, PUSCH, from the UE, wherein the number of coded symbols for the UCI is determined based on the minimum between (i) a first value which is determined based on a payload size of the UCI multiplied by an offset value related to a coding rate, and (ii) a second value which is determined based on the scaling factor multiplied by a total amount of resource elements allocated for the PUSCH receiving the UCI.
An apparatus for interfacing a digital core with at least one physical interface, comprising: a hard macro (ch0-ch7) configured on the digital core, the hard macro having at least one data output, a first data input, a reset input and a sync reset output, the hard macro to be clocked by a first clock (Local_pclk, pclk_core) having a first clock rate, the hard macro configured to, in response to the first clock (Local_pclk, pclk _ core); clock in data from the digital core on the first data input; clock in a reset signal from the digital core on the reset input, wherein a synchronized reset signal (Sync_reset) is output on the sync reset output; and physical interface circuitry (PHYO-PHY7) having a second data input coupled to the data output of the hard macro, and a reset sampling input coupled to the sync reset output of the hard macro, the physical interface circuitry comprising a clock generator, the physical interface circuitry clocked by a second clock (PCLK_Phy) having a second clock rate, and a third clock (Phy_halfrate_clk) having a third clock rate, the second clock (PCLK_Phy) clocking data (DATA<39:0>) in from the hard macro into the physical interface, and the third clock (Phy_halfrate-clk) sampling the synchronized reset signal (Sync_reset) from the hard macro at a rate greater than a rate of the first and second clocks (Local_pclk, pclk_core, PCLK_Phy), wherein when a transition is detected on the synchronized reset signal the clock generator resets the second clock (PCLK_Phy) to a predetermined state. a hard macro (ch0-ch7) configured on the digital core, the hard macro having at least one data output, a first data input, a reset input and a sync reset output, the hard macro to be clocked by a first clock (Local_pclk, pclk_core) having a first clock rate, the hard macro configured to, in response to the first clock (Local_pclk, pclk _ core); clock in data from the digital core on the first data input; clock in a reset signal from the digital core on the reset input, wherein a synchronized reset signal (Sync_reset) is output on the sync reset output; and physical interface circuitry (PHYO-PHY7) having a second data input coupled to the data output of the hard macro, and a reset sampling input coupled to the sync reset output of the hard macro, the physical interface circuitry comprising a clock generator, the physical interface circuitry clocked by a second clock (PCLK_Phy) having a second clock rate, and a third clock (Phy_halfrate_clk) having a third clock rate, the second clock (PCLK_Phy) clocking data (DATA<39:0>) in from the hard macro into the physical interface, and the third clock (Phy_halfrate-clk) sampling the synchronized reset signal (Sync_reset) from the hard macro at a rate greater than a rate of the first and second clocks (Local_pclk, pclk_core, PCLK_Phy), wherein when a transition is detected on the synchronized reset signal the clock generator resets the second clock (PCLK_Phy) to a predetermined state.
Self-locking fastener system comprising - an externally threaded element having a first thread, and - a threaded member having a second thread, characterized in that said externally threaded element is a rod; the nominal diameter of said first thread is less than 1.5mm; the longitudinal section of said second thread has a pitch of asymmetric profile; the nominal diameter of the second thread is less than 1.5mm and in that during assembly, the contact surface between said threaded rod and said threaded element consists of a helical ridge. - an externally threaded element having a first thread, and - a threaded member having a second thread, characterized in that said externally threaded element is a rod; the nominal diameter of said first thread is less than 1.5mm; the longitudinal section of said second thread has a pitch of asymmetric profile; the nominal diameter of the second thread is less than 1.5mm and in that during assembly, the contact surface between said threaded rod and said threaded element consists of a helical ridge.
A discharge product comprising a content-accommodating container containing a concentrate and an agent, and a discharge device attached to the content-accommodating container, wherein the content-accommodating container is unsealed and used by attaching a removable valve member having a valve mechanism, the content-accommodating container comprising a container body having an opening, and a tubular valve accommodating portion for accommodating the valve mechanism, the valve accommodating portion being fixed to the container body and closing the opening of the container body, wherein the valve accommodating portion has a housing portion which accommodates the valve mechanism, a communicating portion to communicate with the concentrate in the container body and a first unsealing portion to close the communicating portion, wherein the housing portion is tubular and has a flange portion formed in an upper end of the housing portion which protrudes outward from the housing portion, wherein the discharge device is provided with the valve member comprising a valve housing accommodated in the valve accommodating portion, the valve mechanism accommodated in the valve housing, and a cap which fixes the valve housing to the content-accommodating container, and wherein the valve housing has a first unsealing mechanism to unseal the first unsealing portion of the content-accommodating container, and wherein the agent is a pressurizing agent; characterized in that the container body has a step portion and the flange portion is arranged on the step portion and is fixed airtightly to the container body by welding or adhering; and in that a seal material is provided which is compressed in a radial direction between an outer surface of the valve housing and an inner surface of the valve accommodating portion.
A method for diagnosing a bacterial infection in a subject comprising: (i) contacting a sample obtained from the subject with a mixture of one or more engineered glycoproteins; and (ii) detecting first binding complexes formed by binding of the glycoproteins by antibodies present in the sample that are specific for bacterial polysaccharides, wherein each of said glycoproteins comprises a bacterial antigen covalently attached to a protein via polysaccharyltransferase (PTase)-mediated glycosylation and wherein the presence of binding complexes is indicative of bacterial infection in the subject, wherein the protein is N-glycoprotein AcrA of Campylobacter jejuni. (i) contacting a sample obtained from the subject with a mixture of one or more engineered glycoproteins; and (ii) detecting first binding complexes formed by binding of the glycoproteins by antibodies present in the sample that are specific for bacterial polysaccharides,
Header for a combine harvester comprising: - a primary implement; - a secondary implement; - a link that is connected with the secondary implement; and - a lifting device with a slide element that is configured and connected with the link such that a translational movement of the slide element causes a lifting of the secondary implement relative to the primary implement; characterised in that the lifting device has a safety device that prevents an unwanted lifting of the secondary implement relative to the primary implement, the lifting device and the safety device being configured such that the secondary implement can only be lifted relative to the primary implement when the secondary implement is released from the ground, in particular due to a lifting of the header. - a primary implement; - a secondary implement; - a link that is connected with the secondary implement; and - a lifting device with a slide element that is configured and connected with the link such that a translational movement of the slide element causes a lifting of the secondary implement relative to the primary implement;
An Agaricus bisporus culture designated line B12998-s39, the culture of the line B12998-s39 having been deposited under the NRRL Accession No. 50899.
Method for growing nanomaterial on a thin lamella, having a thickness that can typically be less than about some hundred nanometres characterised in that it comprises: - the deposition of a resin layer on a substrate; - said substrate being covered in a layer of catalyst active material intended for growing nanomaterial, upon which the resin layer is deposited; - the deposition of a protective layer onto the surface of said resin layer; - local etching of the protective layer, of the resin and of the substrate in such a way as to define a thin lamella in said substrate; - the removal of the protective layer/resin layer assembly, from the surface of said thin lamella; - the growth of nanomaterial on said predefined thin lamella. - the deposition of a resin layer on a substrate; - said substrate being covered in a layer of catalyst active material intended for growing nanomaterial, upon which the resin layer is deposited; - the deposition of a protective layer onto the surface of said resin layer; - local etching of the protective layer, of the resin and of the substrate in such a way as to define a thin lamella in said substrate; - the removal of the protective layer/resin layer assembly, from the surface of said thin lamella; - the growth of nanomaterial on said predefined thin lamella.
An inspection device configured for inspecting a test object, comprising: a probe system (102, 102T) configured, to excite the test object to produce a wave response, to receive the wave response and to produce from the wave response a sequence of corresponding electric signals; a digital logic device, configured to trigger a transmitter to cause a sequence of excitations of the probe system (102, 102T) to produce a sequence of consecutive waves upon a location of the test object, wherein the probe system, is further configured to receive a sequence of wave responses and to produce a sequence of corresponding electric signals; a receiver having a plurality of signal processing channels, each channel configured to scale (201,202,203,204) the electric signals to a different degree and to produce a sequence of corresponding scaled signals; a channel selection device configured to select sequentially the scaled signals from the processing channels during successive acquisition cycles corresponding to the sequence of excitations; at least one analog to digital converter configured to digitize the selected scaled signals and to produce therefrom a sequence of digitized signal samples corresponding to the sequence of excitations; a digital memory for sequentially storing the digitized signal samples; and wherein the digital logic device is configured to process the digitized signal samples to produce a composite signal output with a dynamic range that is higher than that of said analog to digital converter. a probe system (102, 102T) configured, to excite the test object to produce a wave response, to receive the wave response and to produce from the wave response a sequence of corresponding electric signals; a digital logic device, configured to trigger a transmitter to cause a sequence of excitations of the probe system (102, 102T) to produce a sequence of consecutive waves upon a location of the test object, wherein the probe system, is further configured to receive a sequence of wave responses and to produce a sequence of corresponding electric signals; a receiver having a plurality of signal processing channels, each channel configured to scale (201,202,203,204) the electric signals to a different degree and to produce a sequence of corresponding scaled signals; a channel selection device configured to select sequentially the scaled signals from the processing channels during successive acquisition cycles corresponding to the sequence of excitations; at least one analog to digital converter configured to digitize the selected scaled signals and to produce therefrom a sequence of digitized signal samples corresponding to the sequence of excitations; a digital memory for sequentially storing the digitized signal samples; and wherein the digital logic device is configured to process the digitized signal samples to produce a composite signal output with a dynamic range that is higher than that of said analog to digital converter.
A cyclotron comprising: - an upper and lower magnet pole (5,6), symmetrically placed with respect to a median plane, - an upper and lower superconducting coil (1,2) arranged around each of said magnetic poles, - A ring-shaped magnetic return yoke, placed around said poles and said coils, so as to form a magnetic circuit, - a beam chamber between said upper and lower magnetic poles, comprising one or more electrodes configured to accelerate ions moving substantially in said median plane, under the influence of a magnetic field oriented perpendicularly to said median plane, said field being generated by running an electric current through said coils (1,2), - a cryostat, wherein said ring-shaped magnetic return yoke and said coils (1,2) form a cold mass contained within said cryostat, characterised in that said upper and lower poles (5,6) are positioned out of said cryostat. - an upper and lower magnet pole (5,6), symmetrically placed with respect to a median plane, - an upper and lower superconducting coil (1,2) arranged around each of said magnetic poles, - A ring-shaped magnetic return yoke, placed around said poles and said coils, so as to form a magnetic circuit, - a beam chamber between said upper and lower magnetic poles, comprising one or more electrodes configured to accelerate ions moving substantially in said median plane, under the influence of a magnetic field oriented perpendicularly to said median plane, said field being generated by running an electric current through said coils (1,2), - a cryostat,