mhurhangee/ep-ind-claims huggingface dataset:
A method for information transmission in a machine-to-machine telecommunications network, the telecommunications network supporting information transmission between a server and a plurality of communication terminals, the method comprising the steps of: - storing a common group identifier assigned to a group containing at least some of the plurality of terminals; characterized in that the server is connected via a provisioning interface to a network node storing the common group identifier, and the method further comprises the steps of: - assigning the common group identifier to the plurality of communication terminals via the provisioning interface; - transmitting an information message to the plurality of communication terminals identified by the common group identifier, wherein the information message contains the common group identifier. - storing a common group identifier assigned to a group containing at least some of the plurality of terminals; - assigning the common group identifier to the plurality of communication terminals via the provisioning interface; - transmitting an information message to the plurality of communication terminals identified by the common group identifier, wherein the information message contains the common group identifier.
A joint for a segmented wind turbine blade, comprising: one or more scarfed laminate gloves integrally formed on a first blade segment of the segmented wind turbine blade, wherein the one or more scarfed laminate gloves are arranged along a chordwise direction of the first blade segment, and the one or more scarfed laminate gloves are inside the first blade segment; and one or more scarfed protruding laminates integrally formed on a second blade segment of the segmented wind turbine blade, wherein the one or more scarfed protruding laminates are arranged along the chordwise direction of the second blade segment, and the one or more scarfed protruding laminates protrude from the second blade segment, wherein the one or more scarfed laminate gloves are configured for housing the one or more scarfed protruding laminates, and when the segmented wind turbine blade is assembled on-site, the one or more scarfed laminate gloves and the one or more scarfed protruding laminates are connected together so that the first blade segment is assembled with the second blade segment. one or more scarfed laminate gloves integrally formed on a first blade segment of the segmented wind turbine blade, wherein the one or more scarfed laminate gloves are arranged along a chordwise direction of the first blade segment, and the one or more scarfed laminate gloves are inside the first blade segment; and one or more scarfed protruding laminates integrally formed on a second blade segment of the segmented wind turbine blade, wherein the one or more scarfed protruding laminates are arranged along the chordwise direction of the second blade segment, and the one or more scarfed protruding laminates protrude from the second blade segment, wherein the one or more scarfed laminate gloves are configured for housing the one or more scarfed protruding laminates, and when the segmented wind turbine blade is assembled on-site, the one or more scarfed laminate gloves and the one or more scarfed protruding laminates are connected together so that the first blade segment is assembled with the second blade segment.
An optoelectronic device comprising: a substrate having a first and a second substantially planar face and an aperture therein, the aperture passing through and penetrating the first and second substantially planar faces of the substrate; the aperture having a first and a second face defining a space therebetween; wherein the space is at least partially filled with a first semiconductor material, at least part of the first face is coated with a conductor material and at least part of the second face is coated with a second semiconductor material which is different from the first semiconductor material; wherein, within the aperture, the conductor material and the second semiconductor material are separated by the first semiconductor material; wherein, within the aperture, the first semiconductor material and the second semiconductor material meet at an interface; and wherein the conductor material coated on the first face extends out of the aperture and onto the second substantially planar face of the substrate and the second semiconductor material coated on the second face extends out of the aperture and onto the first substantially planar face of the substrate. a substrate having a first and a second substantially planar face and an aperture therein, the aperture passing through and penetrating the first and second substantially planar faces of the substrate; the aperture having a first and a second face defining a space therebetween; wherein the space is at least partially filled with a first semiconductor material, at least part of the first face is coated with a conductor material and at least part of the second face is coated with a second semiconductor material which is different from the first semiconductor material; wherein, within the aperture, the conductor material and the second semiconductor material are separated by the first semiconductor material; wherein, within the aperture, the first semiconductor material and the second semiconductor material meet at an interface; and wherein the conductor material coated on the first face extends out of the aperture and onto the second substantially planar face of the substrate and the second semiconductor material coated on the second face extends out of the aperture and onto the first substantially planar face of the substrate.
A flue gas-treating method for treating acid tail gas by using an ammonia process, characterized in that, it comprises the following steps: a) adjusting the concentration of sulfur dioxide in the acid tail gas by adding air from an air blower into the inlet duct of an absorber so as to make the concentration of sulfur dioxide introduced into the absorber ≤ 30,000 mg/Nm 3; b) cooling and washing the acid tail gas using a process water spray and/or ammonium sulfate solution spray in the inlet duct of the absorber or inside the absorber, wherein the concentration of the ammonium sulfate solution increases when spraying the acid tail gas with ammonium sulfate solution; c) absorbing sulfur dioxide by spray absorption of the acid tail gas with an absorption solution containing ammonia in an absorption section in the absorber, wherein the absorption section is provided with absorption solution distributors and the absorption solution contains ammonia supplied by an ammonia storage tank; d) oxidizing the ammonium sulfite generated in step c) in an oxidation section in the absorber, wherein the oxidation section is provided with oxidation distributors; e) washing off the absorption solution within the tail gas with water in a water washing layer above the absorption section in the absorber to reduce the slip of the absorption solution; f) removing water droplets within the tail gas with a demister provided above the water washing layer inside the absorber so as to control the concentration of mist droplets contained in the cleaned tail gas. a) adjusting the concentration of sulfur dioxide in the acid tail gas by adding air from an air blower into the inlet duct of an absorber so as to make the concentration of sulfur dioxide introduced into the absorber ≤ 30,000 mg/Nm 3; b) cooling and washing the acid tail gas using a process water spray and/or ammonium sulfate solution spray in the inlet duct of the absorber or inside the absorber, wherein the concentration of the ammonium sulfate solution increases when spraying the acid tail gas with ammonium sulfate solution; c) absorbing sulfur dioxide by spray absorption of the acid tail gas with an absorption solution containing ammonia in an absorption section in the absorber, wherein the absorption section is provided with absorption solution distributors and the absorption solution contains ammonia supplied by an ammonia storage tank; d) oxidizing the ammonium sulfite generated in step c) in an oxidation section in the absorber, wherein the oxidation section is provided with oxidation distributors; e) washing off the absorption solution within the tail gas with water in a water washing layer above the absorption section in the absorber to reduce the slip of the absorption solution; f) removing water droplets within the tail gas with a demister provided above the water washing layer inside the absorber so as to control the concentration of mist droplets contained in the cleaned tail gas.
Lid stay comprising: a base body, a setting arm with a setting contour, a hinge pin by means of which the setting arm is attached to the base body so as to be pivotable about an axis of rotation, a actuating drive arranged on the base body with a pressure element and with an energy accumulator, wherein the pressure element is force loaded by means of the energy accumulator, characterized in that the hinge pin is releasably fastened to the base body, wherein, in a state of the hinge pin inserted on the base body, the setting arm is mounted on the base body such that it can be pivoted via the hinge pin, and wherein, in a state of the hinge pin released from the base body, the setting arm can be removed from the base body, and that the lid stay further has a securing element, the actuating drive being supported against the securing element in a secured position of the securing element, without the pressure element of the actuating drive coming into contact with the setting contour of the setting arm, and wherein the pressure element of the actuating drive is supported against the setting contour of the setting arm in an unlocked position of the securing element and is force loaded.
A pumping system for use in medical applications where liquids are infused into and aspirated from a living being, said system comprising: (a) a means for infusing a liquid into said patient; (b) a means for aspirating a liquid from said patient along an aspiration pathway, each of said means comprising a positive displacement pump (64, 80) other than a peristaltic type pump, said positive displacement pump having an inlet and an outlet side, wherein at least said aspirating means comprises a shut-off valve located on the inlet side of said pump; and (c) a damper apparatus (30, 40/42, 44, 78) for damping pressure variations at least in the pumped liquid in said aspiration pathway; and (d) means for controlling said pump. (a) a means for infusing a liquid into said patient; (b) a means for aspirating a liquid from said patient along an aspiration pathway, each of said means comprising a positive displacement pump (64, 80) other than a peristaltic type pump, said positive displacement pump having an inlet and an outlet side, wherein at least said aspirating means comprises a shut-off valve located on the inlet side of said pump; and (c) a damper apparatus (30, 40/42, 44, 78) for damping pressure variations at least in the pumped liquid in said aspiration pathway; and (d) means for controlling said pump.
A method of handling an interference measurement performed by a communication device in a time-division duplexing, TDD, system, characterized by the method comprising the steps of: receiving a signal; measuring an interference coming from at least one cell with at least one uplink/downlink, UL/DL, configuration in the TDD system in a subframe according to the signal, to obtain a measured interference; and generating a measurement result comprising the measured interference and information of the at least one UL/DL configuration of the at least one cell; wherein the communication device measures the interference according to a measurement configuration comprising a resource via which the interference is measured and a first indicator which indicates the communication device to measure the interference; wherein the information comprises a second indicator which indicates a situation in which the measured interference is obtained according to the at least one UL/DL configuration; wherein the situation comprises at least one subframe type of the subframe of the at least one UL/DL configuration. receiving a signal; measuring an interference coming from at least one cell with at least one uplink/downlink, UL/DL, configuration in the TDD system in a subframe according to the signal, to obtain a measured interference; and generating a measurement result comprising the measured interference and information of the at least one UL/DL configuration of the at least one cell; wherein the communication device measures the interference according to a measurement configuration comprising a resource via which the interference is measured and a first indicator which indicates the communication device to measure the interference; wherein the information comprises a second indicator which indicates a situation in which the measured interference is obtained according to the at least one UL/DL configuration; wherein the situation comprises at least one subframe type of the subframe of the at least one UL/DL configuration.
Device for taking a soil sample from an underwater bottom, comprising - an elongate hollow drill casing and a soil sample holder received in the drill casing and having an internal cavity connecting to an inlet opening provided on an underside of the drill casing; - a support frame configured for placement on the underwater bottom and for positioning the drill casing relative to the underwater bottom; and - a drive for driving the underside of the drill casing into the underwater bottom so that the internal cavity of the soil sample holder can fill up with soil material via the inlet opening to obtain a soil sample; characterized in that: - a transverse dimension of the internal cavity of the soil sample holder amounts to at least 200 mm, allowing to take an undisturbed soil sub-sample of smaller size from the soil sample, - the drive is configured to produce a driving-in force of at least 500 kN; and - the drive comprises a hydraulic vibratory block configured to generate waves having a frequency within the range of 5 to 100 Hz, and/or a sonic drilling device configured to generate waves having a frequency amounting to at least 100 Hz, wherein the drive engages on an upper side of the drill casing. - an elongate hollow drill casing and a soil sample holder received in the drill casing and having an internal cavity connecting to an inlet opening provided on an underside of the drill casing; - a support frame configured for placement on the underwater bottom and for positioning the drill casing relative to the underwater bottom; and - a drive for driving the underside of the drill casing into the underwater bottom so that the internal cavity of the soil sample holder can fill up with soil material via the inlet opening to obtain a soil sample; characterized in that: - a transverse dimension of the internal cavity of the soil sample holder amounts to at least 200 mm, allowing to take an undisturbed soil sub-sample of smaller size from the soil sample, - the drive is configured to produce a driving-in force of at least 500 kN; and - the drive comprises a hydraulic vibratory block configured to generate waves having a frequency within the range of 5 to 100 Hz, and/or a sonic drilling device configured to generate waves having a frequency amounting to at least 100 Hz, wherein the drive engages on an upper side of the drill casing. - a transverse dimension of the internal cavity of the soil sample holder amounts to at least 200 mm, allowing to take an undisturbed soil sub-sample of smaller size from the soil sample, - the drive is configured to produce a driving-in force of at least 500 kN; and - the drive comprises a hydraulic vibratory block configured to generate waves having a frequency within the range of 5 to 100 Hz, and/or a sonic drilling device configured to generate waves having a frequency amounting to at least 100 Hz, wherein the drive engages on an upper side of the drill casing.
A method for controlling a superheat degree of a vehicle air-conditioning system, comprising: acquiring, by a control system in a real time manner, an actual superheat degree, a preset superheat degree, and a feed forward information affecting the actual superheat degree; characterized by adjusting an opening degree of an electronic expansion valve in real time according to the actual superheat degree, the preset superheat degree and the feed forward information acquired to control the superheat degree of the vehicle air-conditioning system, wherein the feed forward information comprises: a change of a displacement of a compressor, or a change of a rotational speed of the compressor and a change of the displacement of the compressor; and/or, a change of a rotational speed of an evaporator fan. acquiring, by a control system in a real time manner, an actual superheat degree, a preset superheat degree, and a feed forward information affecting the actual superheat degree; characterized by adjusting an opening degree of an electronic expansion valve in real time according to the actual superheat degree, the preset superheat degree and the feed forward information acquired to control the superheat degree of the vehicle air-conditioning system, wherein the feed forward information comprises: a change of a displacement of a compressor, or a change of a rotational speed of the compressor and a change of the displacement of the compressor; and/or, a change of a rotational speed of an evaporator fan. a change of a displacement of a compressor, or a change of a rotational speed of the compressor and a change of the displacement of the compressor; and/or, a change of a rotational speed of an evaporator fan.
Horse-riding stirrup comprising: - a stirrup frame which comprises a hooking portion to a stirrup leather, a first side arm and a support arm connected to each other in an incident manner to define a frame compartment engageable by a user's foot; - a second side arm comprising an articulation end pivoted to the stirrup frame about an axis of rotation, and a free end rotatable between a coupling configuration to the support arm in which the second arm encloses the frame compartment with the first side arm and the support arm, and a release configuration of the latter (Fig. 2), in which said second arm is spaced from the support arm to create a lateral disengagement opening of the user's foot from said compartment; wherein the second side arm comprises at least a flexible portion which in the coupling configuration presses the free end in abutment with the support arm and which, in order to achieve the release configuration, allows the second side arm to bend in part to snap disengage the free end from the support arm, for example as a result of a stress in a direction opposite the first side arm, and characterized in that between the articulation end and the free end, the second side arm delimits one or more structural lightening portions, for example in the form of a recess, which form the flexible portion, wherein the flexibility of the flexible portion is adjustable through the selection of a higher/lower distribution density of said lightening portions along said arm. - a stirrup frame which comprises a hooking portion to a stirrup leather, a first side arm and a support arm connected to each other in an incident manner to define a frame compartment engageable by a user's foot; - a second side arm comprising an articulation end pivoted to the stirrup frame about an axis of rotation, and a free end rotatable between a coupling configuration to the support arm in which the second arm encloses the frame compartment with the first side arm and the support arm, and a release configuration of the latter (Fig. 2), in which said second arm is spaced from the support arm to create a lateral disengagement opening of the user's foot from said compartment;
A common mode choke (1,101) comprising a first planar coil configured for receiving a first signal, a second planar coil configured for receiving a second signal, the first and second coils comprising substantially mirror images of one another and arranged side by side in a common plane, characterized in that the first planar coil and second planar coil are electromagnetically coupled by a closed coupling loop (5,50-53,77,86,90a,90b,96), comprising conducting tracks (20-24,54-58,60-63, 75,76,78-82,93,94).
A magnetoresistance effect element comprising: a first ferromagnetic metal layer; a second ferromagnetic metal layer; and a tunnel barrier layer that is sandwiched between the first and second ferromagnetic metal layers (6, 7), wherein the tunnel barrier layer is expressed by a composition formula of AB 2 O x (0<x≤4), and has a spinel structure in which cations are arranged in a disordered manner, the tunnel barrier layer has a lattice-matched portion that is lattice-matched with both of the first ferromagnetic metal layer and the second ferromagnetic metal layer, and a lattice-mismatched portion that is not lattice-matched with at least one of the first ferromagnetic metal layer and the second ferromagnetic metal layer, A is a divalent cation of plural non-magnetic elements, B is an aluminum ion, wherein the lattice-matched portion exhibits lattice lines, which are continuously connected from the first ferromagnetic metal layer to the second ferromagnetic metal layer via the tunnel barrier layer, and the lattice-mismatched portion exhibits lattices lines which are not continuously connected from the first ferromagnetic metal layer to the second ferromagnetic metal layer via the tunnel barrier layer or exhibit no lattice lines. a first ferromagnetic metal layer; a second ferromagnetic metal layer; and a tunnel barrier layer that is sandwiched between the first and second ferromagnetic metal layers (6, 7), wherein the tunnel barrier layer is expressed by a composition formula of AB 2 O x (0<x≤4), and has a spinel structure in which cations are arranged in a disordered manner, the tunnel barrier layer has a lattice-matched portion that is lattice-matched with both of the first ferromagnetic metal layer and the second ferromagnetic metal layer, and a lattice-mismatched portion that is not lattice-matched with at least one of the first ferromagnetic metal layer and the second ferromagnetic metal layer, A is a divalent cation of plural non-magnetic elements, B is an aluminum ion, wherein the lattice-matched portion exhibits lattice lines, which are continuously connected from the first ferromagnetic metal layer to the second ferromagnetic metal layer via the tunnel barrier layer, and the lattice-mismatched portion exhibits lattices lines which are not continuously connected from the first ferromagnetic metal layer to the second ferromagnetic metal layer via the tunnel barrier layer or exhibit no lattice lines.