mhurhangee/ep-ind-claims huggingface dataset:
A method for simultaneous co-generation of electric energy and hydrogen by totally electrochemical means, characterized in that it comprises the following steps: - providing a solution of an electrolysable metal chosen from zinc, nickel and manganese, a first electrode and a second electrode, - electrolyzing the solution so as to: ∘ deposit the electrolysable metal on the first electrode, ∘ generate hydrogen ions in the solution at the second electrode, ∘ and form hydrogen - electrolysable metal battery cell, - operating the hydrogen - electrolysable metal battery cell so as to simultaneously: ∘ producing hydrogen in gaseous form from hydrogen ions in the solution at the second electrode, ∘ oxydizing the electrolysable metal at the first electrode, ∘ generating electricity between the first and second electrodes characterized in that an electrolysis cell is used as battery cell. - providing a solution of an electrolysable metal chosen from zinc, nickel and manganese, a first electrode and a second electrode, - electrolyzing the solution so as to: ∘ deposit the electrolysable metal on the first electrode, ∘ generate hydrogen ions in the solution at the second electrode, ∘ and form hydrogen - electrolysable metal battery cell, ∘ deposit the electrolysable metal on the first electrode, ∘ generate hydrogen ions in the solution at the second electrode, ∘ and form hydrogen - electrolysable metal battery cell, - operating the hydrogen - electrolysable metal battery cell so as to simultaneously: ∘ producing hydrogen in gaseous form from hydrogen ions in the solution at the second electrode, ∘ oxydizing the electrolysable metal at the first electrode, ∘ generating electricity between the first and second electrodes characterized in that an electrolysis cell is used as battery cell. ∘ producing hydrogen in gaseous form from hydrogen ions in the solution at the second electrode, ∘ oxydizing the electrolysable metal at the first electrode, ∘ generating electricity between the first and second electrodes
A seat for a vehicle, wherein the seat comprises: - a backrest - a headrest, wherein the headrest is joined in a fixed manner to the backrest such that the headrest moves jointly with the backrest, said headrest being integrated in the backrest, wherein the backrest and the headrest define a hollow space therebetween, - a folding mechanism, configured to move the backrest from a first upright position to a second folded position, and - an actuator configured to control the folding mechanism, characterised in that the actuator is arranged on at least one of the surfaces which define the hollow space, wherein the hollow space is an opening which crosses through the entire solid portion of the seat. - a backrest - a headrest, wherein the headrest is joined in a fixed manner to the backrest such that the headrest moves jointly with the backrest, said headrest being integrated in the backrest, wherein the backrest and the headrest define a hollow space therebetween, - a folding mechanism, configured to move the backrest from a first upright position to a second folded position, and - an actuator configured to control the folding mechanism,
Illumination device (1; 21; 26; 30), comprising - a hollow body (2; 24; 29; 31) comprising at least one light emission opening, wherein the hollow body (2; 24; 29; 31) comprises at least partly a reflective surface (11; 13; 25) at its inner side (10; 22), and - at least one semiconductor luminous element, wherein a predominant portion of the light emitted by the semiconductor luminous element is incident on the inner side (10; 22) of the hollow body (2; 24; 29; 31) and is reflected from there through the light emission opening, and - furthermore comprising a covering (4; 18) for the light emission opening with a grid-type arrangement of light transmission openings, wherein the at least one semiconductor luminous element is fixed to the covering (4; 18) and is directed at the inner side (10; 22) of the hollow body (2; 24; 29; 31), characterized in that - a side area (9; 17; 17b) of the covering (4; 18) that surrounds the light transmission openings is at least partly reflectively coated. - a hollow body (2; 24; 29; 31) comprising at least one light emission opening, wherein the hollow body (2; 24; 29; 31) comprises at least partly a reflective surface (11; 13; 25) at its inner side (10; 22), and - at least one semiconductor luminous element, wherein a predominant portion of the light emitted by the semiconductor luminous element is incident on the inner side (10; 22) of the hollow body (2; 24; 29; 31) and is reflected from there through the light emission opening, and - furthermore comprising a covering (4; 18) for the light emission opening with a grid-type arrangement of light transmission openings, wherein the at least one semiconductor luminous element is fixed to the covering (4; 18) and is directed at the inner side (10; 22) of the hollow body (2; 24; 29; 31), - a side area (9; 17; 17b) of the covering (4; 18) that surrounds the light transmission openings is at least partly reflectively coated.
A method for a cellular network, wherein the cellular network provides service to mobile stations, the method comprising: providing a cell type indication based at least on one of a preamble and a header portion of a broadcast signal; and transmitting, to the mobile stations, said broadcast signal with a cell type indication set in accordance with a first or a second cell type (FC, MC) of a cell of the cellular network from which said broadcast signal is transmitted, wherein said first cell type is a femto cell and said second cell type is a macro cell. providing a cell type indication based at least on one of a preamble and a header portion of a broadcast signal; and transmitting, to the mobile stations, said broadcast signal with a cell type indication set in accordance with a first or a second cell type (FC, MC) of a cell of the cellular network from which said broadcast signal is transmitted, wherein said first cell type is a femto cell and said second cell type is a macro cell.
A method of supplying bursts of substantially constant voltage to a plurality of pulse loads (11, 22), the method comprising: providing an array of low voltage current sources, each for feeding constant DC (Direct Current) current at a nominal voltage to a respective storage capacitor, each of which is coupled to a plurality of switch power supplies; coupling each of the switch power supplies to a respective output storage capacitor for feeding voltage to the pulse load (11,22); storing energy in each of the storage capacitors during both active and inactive portions of a load switching cycle of the respective switch power supply, to which the corresponding storage capacitor is coupled, for feeding voltage to the respective pulse loads (11,22) during an active portion of the load switching cycle; and supplying the energy, stored in the respective storage capacitor, to the respective switch power supply, to which the storage capacitor is coupled, and then to each of the pulse loads (11, 22) during the active portion of the load switching cycle, wherein the supplying of said energy comprises computing, based on a current that is to be sourced by the load during the active portion of the load switching cycle, an average current that should be fed to the respective storage capacitor in order to ensure that sufficient energy will be stored in said respective storage capacitor to feed the pulse load (11, 22) without substantially completely draining said respective storage capacitor. providing an array of low voltage current sources, each for feeding constant DC (Direct Current) current at a nominal voltage to a respective storage capacitor, each of which is coupled to a plurality of switch power supplies; coupling each of the switch power supplies to a respective output storage capacitor for feeding voltage to the pulse load (11,22); storing energy in each of the storage capacitors during both active and inactive portions of a load switching cycle of the respective switch power supply, to which the corresponding storage capacitor is coupled, for feeding voltage to the respective pulse loads (11,22) during an active portion of the load switching cycle; and supplying the energy, stored in the respective storage capacitor, to the respective switch power supply, to which the storage capacitor is coupled, and then to each of the pulse loads (11, 22) during the active portion of the load switching cycle, wherein the supplying of said energy comprises computing, based on a current that is to be sourced by the load during the active portion of the load switching cycle, an average current that should be fed to the respective storage capacitor in order to ensure that sufficient energy will be stored in said respective storage capacitor to feed the pulse load (11, 22) without substantially completely draining said respective storage capacitor.
A cooling system for an internal combustion engine of a motorcycle, having a guard, arranged on a side of the motorcycle and receiving a tangential air flow, deriving from the forward motion of the motorcycle, sucked by a fan, wherein: said guard, having a lower edge, an upper edge, a front edge and a rear edge with respect to a forward running direction of the motorcycle, has a grate mesh structure extending on a plane to determine, behind the guard, a deviation space in which the air flow sucked by the fan through the guard is deviated; said grate mesh structure of the guard is surrounded by a rib having, at the front edge, a height lower than the height thereof at the rear edge, said height being measured with respect to the plane of the grate; and the grate meshes are formed in a grate provided in a single piece, with bars of the grate having a uniform cross section, with an outer face rounded, said bars having a determined thickness, whereby view of a radiator of the engine from tilted angles is obstructable. said guard, having a lower edge, an upper edge, a front edge and a rear edge with respect to a forward running direction of the motorcycle, has a grate mesh structure extending on a plane to determine, behind the guard, a deviation space in which the air flow sucked by the fan through the guard is deviated; said grate mesh structure of the guard is surrounded by a rib having, at the front edge, a height lower than the height thereof at the rear edge, said height being measured with respect to the plane of the grate; and the grate meshes are formed in a grate provided in a single piece, with bars of the grate having a uniform cross section, with an outer face rounded, said bars having a determined thickness, whereby view of a radiator of the engine from tilted angles is obstructable.
Process for producing a C 3 - to C 20 -alkyltrialkoxysilane by hydrosilylation, wherein alkoxy represents methoxy, ethoxy or propoxy, comprising - initially charging a mixture of at least one hydroalkoxysilane from the group of hydrotrialkoxysilane, hydroalkyldialkoxysilane, hydrodialkylalkoxysilane and a Pt catalyst, - heating the mixture to a temperature of 30°C to 60°C, - subsequently, with mixing, adding/metering an omega-unsaturated or mono-unsaturated C 3 - to C 20 -hydrocarbon, at least one carboxylic acid and at least one alcohol as cocatalysts, - reacting the mixture and subsequently working up the thus-obtained product mixture. - initially charging a mixture of at least one hydroalkoxysilane from the group of hydrotrialkoxysilane, hydroalkyldialkoxysilane, hydrodialkylalkoxysilane and a Pt catalyst, - heating the mixture to a temperature of 30°C to 60°C, - subsequently, with mixing, adding/metering an omega-unsaturated or mono-unsaturated C 3 - to C 20 -hydrocarbon, at least one carboxylic acid and at least one alcohol as cocatalysts, - reacting the mixture and subsequently working up the thus-obtained product mixture.
A system, comprising: a container (200, 400, 700) comprising a body portion (220, 420) configured to contain a material and a base portion (230, 430) configured to engage with the body portion (220, 420), the base portion (230, 430) comprising a directing component and a surface defining an opening, the directing component configured to guide the material toward the opening; and a grinding apparatus (100, 600) configured to grind the material, characterized in that the grinding apparatus (100, 600) is configured to engage with the container (200, 400, 700) to actuate the directing component, and the grinding apparatus (100, 600) comprises a movable tongue configured to collect and release excess ground material. a container (200, 400, 700) comprising a body portion (220, 420) configured to contain a material and a base portion (230, 430) configured to engage with the body portion (220, 420), the base portion (230, 430) comprising a directing component and a surface defining an opening, the directing component configured to guide the material toward the opening; and a grinding apparatus (100, 600) configured to grind the material, the grinding apparatus (100, 600) is configured to engage with the container (200, 400, 700) to actuate the directing component, and the grinding apparatus (100, 600) comprises a movable tongue configured to collect and release excess ground material.
A method of operating a production plant having a vehicle and at least one charging point, wherein - in a first method step, the vehicle travels to the charging point, - in a second method step, the vehicle is rotated at the charging point, which is a pivot point, in particular by means of an omni-directional drive or a differential drive, wherein the orientation of the vehicle is altered upon rotation, without locomotion taking place, - the vehicle proceeds in a third step, wherein during the second method step, electric power is transmitted inductively to the vehicle by a primary winding, in the form of a ring winding, of the charging point regardless of the rotational position of the vehicle, wherein the ring axis of the primary winding comprises the pivot point upon rotation of the vehicle. - in a first method step, the vehicle travels to the charging point, - in a second method step, the vehicle is rotated at the charging point, which is a pivot point, in particular by means of an omni-directional drive or a differential drive, wherein the orientation of the vehicle is altered upon rotation, without locomotion taking place, - the vehicle proceeds in a third step,
Method for controlling the adaptive behaviour of an acoustic echo compensation, wherein the echo compensation is effectuated by way of a frequency- and time-dependent control, adapted to an environmental situation, of an adaptive increment μ (l) of an echo compensation filter and the adaptive increment μ (l) of the echo compensation filter is ascertained using a transfer function distance D (l) between a room impulse response g (l) and an impulse response of the echo compensation filter ĝ (l), characterized • in that the transfer function distance D (l) is calculated on the basis of a short-term power spectrum of a background noise Φ̂ nn ( l), a short-term power spectrum of an output signal of the acoustic echo compensation Φ̂ qq ( l) and a short-term power spectrum of a loudspeaker signal Φ̂ xx ( l) with the aid of a spectral subtraction according to the equation D ' _ l, i = M L ⋅ 1 Φ _ ^ xx l, i ⋅ { Φ _ ^ qq l, i − Φ _ ^ nn l, i Φ _ ^ qq l, i ≥ α ⋅ Φ _ ^ nn l, i α − 1 Φ _ ^ nn l, i Φ _ ^ qq l, i < α ⋅ Φ _ ^ nn l, i and a minimum value estimate according to the equation D (l) = min ( D (l-1), D '(l)), and • in that the short-term power spectrum of the background noise Φ̂ nn ( l) is included in ascertaining the transfer function distance D (l), said short-term power spectrum of the background noise being ascertained in a noise estimation carried out in addition to the echo compensation. • in that the transfer function distance D (l) is calculated on the basis of a short-term power spectrum of a background noise Φ̂ nn ( l), a short-term power spectrum of an output signal of the acoustic echo compensation Φ̂ qq ( l) and a short-term power spectrum of a loudspeaker signal Φ̂ xx ( l) with the aid of a spectral subtraction according to the equation D ' _ l, i = M L ⋅ 1 Φ _ ^ xx l, i ⋅ { Φ _ ^ qq l, i − Φ _ ^ nn l, i Φ _ ^ qq l, i ≥ α ⋅ Φ _ ^ nn l, i α − 1 Φ _ ^ nn l, i Φ _ ^ qq l, i < α ⋅ Φ _ ^ nn l, i and a minimum value estimate according to the equation D (l) = min ( D (l-1), D '(l)), and • in that the short-term power spectrum of the background noise Φ̂ nn ( l) is included in ascertaining the transfer function distance D (l), said short-term power spectrum of the background noise being ascertained in a noise estimation carried out in addition to the echo compensation.
A continuous temperature measuring device for a RH apparatus comprising: a light-to-temperature converter measuring temperature based on received light; a light guide rod receiving light from a measurement target; an optical fiber transferring the light received by the light guide rod to the light-to-temperature converter; a connector connecting the optical fiber to the light guide rod while maintaining straightness of the optical fiber; a primary protection tube enclosing an outer peripheral surface of the light guide rod; and a flexible heat resistant tube protecting the optical fiber. a light-to-temperature converter measuring temperature based on received light; a light guide rod receiving light from a measurement target; an optical fiber transferring the light received by the light guide rod to the light-to-temperature converter; a connector connecting the optical fiber to the light guide rod while maintaining straightness of the optical fiber; a primary protection tube enclosing an outer peripheral surface of the light guide rod; and a flexible heat resistant tube protecting the optical fiber.
Air cooling system comprising a cooling battery for cooling an air stream, and at least one fan, the rear face of the said system being intended to be in contact with the wall of a room and its upper face being intended to be in contact with the ceiling of the said room; the said air stream being drawn in in the bottom part, vertically traversing the cooling battery located in the middle part and being exhausted by the front face in the top part in close proximity to the ceiling, characterised in that the thicknesses of the middle part comprising the cooling battery and of the bottom part comprising a suction grille are less than that of the top part comprising the at least one fan.
A polyamide resin composition comprising a polyamide resin and an impact-resistant material, wherein the polyamide resin comprises an aliphatic copolyamide (A-1) comprising three or more types of monomers and an aliphatic polyamide (A-2), the content of the aliphatic copolyamide (A-1) in the polyamide resin composition is 1% by mass to 30% by mass, the polyamide resin composition further comprises an aromatic polyamide (A-3), wherein the content of the aromatic polyamide (A-3) in the polyamide resin composition is 1% by mass to 30% by mass, and the aromatic polyamide (A-3) is a polyamide 6T/6I, and the aliphatic polyamide (A-2) excludes copolyamide resins obtained by copolymerizing three or more types of monomers.
A system for providing binaural telepresence, the system comprising: a first communication device; a first set of active noise reducing headphones comprising a right feed-forward microphone and a left feed-forward microphone, the first set of active noise reducing headphones having an active noise-cancelling mode and an active hear-through mode, coupled to the first communication device and configured to provide signals from the first left and right feed-forward microphones to the first communication device; a second communication device capable of receiving signals from the first communication device; and a second set of active noise reducing headphones having an active noise-cancelling mode, coupled to the second communication device; wherein the first communication device is configured to transmit the first left and right feed-forward microphone signals to the second communication device; the second communication device is configured to provide the first left and right feed-forward microphone signals to the second set of headphones; and the second set of headphones are configured to reproduce the first left and right feed-forward microphone signals so that a user of the second set of headphones hears ambient noise from the environment of the first set of headphones, and filter the first left and right feed-forward microphone signals to compensate for the specific frequency response of the feed-forward microphones of the first set of active noise reducing headphones so that the user of the second set of headphones hears the ambient noise from the first set of headphones with ambient naturalness. a first communication device; a first set of active noise reducing headphones comprising a right feed-forward microphone and a left feed-forward microphone, the first set of active noise reducing headphones having an active noise-cancelling mode and an active hear-through mode, coupled to the first communication device and configured to provide signals from the first left and right feed-forward microphones to the first communication device; a second communication device capable of receiving signals from the first communication device; and a second set of active noise reducing headphones having an active noise-cancelling mode, coupled to the second communication device; wherein the first communication device is configured to transmit the first left and right feed-forward microphone signals to the second communication device; the second communication device is configured to provide the first left and right feed-forward microphone signals to the second set of headphones; and the second set of headphones are configured to reproduce the first left and right feed-forward microphone signals so that a user of the second set of headphones hears ambient noise from the environment of the first set of headphones, and filter the first left and right feed-forward microphone signals to compensate for the specific frequency response of the feed-forward microphones of the first set of active noise reducing headphones so that the user of the second set of headphones hears the ambient noise from the first set of headphones with ambient naturalness.