mhurhangee/ep-ind-claims huggingface dataset:
Battery apparatus having at least one rechargeable battery cell, comprising: - an electrical interface for charging the battery cell from an external charger, - a communication device for wirelessly communicating with the external charger, - an energy supply device, which is independent of the battery cell and the electrical interface, for supplying energy to the communication device during an initial communication operation with the external charger, - characterized in that the energy supply device comprises an energy harvesting device and an energy storage device, wherein the energy harvesting device is designed to gather electrical energy from the area surrounding the battery apparatus, and wherein the energy storage device is designed to store the gathered electrical energy independently of the battery cell. - an electrical interface for charging the battery cell from an external charger, - a communication device for wirelessly communicating with the external charger, - an energy supply device, which is independent of the battery cell and the electrical interface, for supplying energy to the communication device during an initial communication operation with the external charger, - characterized in that the energy supply device comprises an energy harvesting device and an energy storage device, wherein the energy harvesting device is designed to gather electrical energy from the area surrounding the battery apparatus, and wherein the energy storage device is designed to store the gathered electrical energy independently of the battery cell.
A process for obtaining a charge of hexanitrohexaazaisowurtzitane crystals, characterized in that it comprises: - preparing a saturated solution of any polymorphic form of hexanitrohexaazaisowurtzitane in a mixture comprising, on the one hand, an organic solvent for said hexanitrohexaazaisowurtzitane and, on the hand, an organic nonsolvent for said hexanitrohexaazaisowurtzitane, said solvent being more volatile than said nonsolvent; - seeding this saturated solution with a few hexanitrohexaazaisowurtzitane crystals; and then - concentrating the seeded, saturated solution by at least partial evaporation of the solvent, said evaporation of the solvent being performed at a temperature of between 35°C and 15°C and at a pressure adjusted, to plus or minus 1.2 x 10 3 Pa (12 mbar), to the boiling pressure of the solvent in said solution, throughout the process of evaporating said solvent from said solution. - preparing a saturated solution of any polymorphic form of hexanitrohexaazaisowurtzitane in a mixture comprising, on the one hand, an organic solvent for said hexanitrohexaazaisowurtzitane and, on the hand, an organic nonsolvent for said hexanitrohexaazaisowurtzitane, said solvent being more volatile than said nonsolvent; - seeding this saturated solution with a few hexanitrohexaazaisowurtzitane crystals; and then - concentrating the seeded, saturated solution by at least partial evaporation of the solvent, said evaporation of the solvent being performed at a temperature of between 35°C and 15°C and at a pressure adjusted, to plus or minus 1.2 x 10 3 Pa (12 mbar), to the boiling pressure of the solvent in said solution, throughout the process of evaporating said solvent from said solution.
A machining tool system having a carrier tool, a cutting plate with a clamping trough and a clamping element with an associated clamping screw, wherein arranged on the underside of the clamping element facing the cutting plate there is an engagement element which in the installed state is in clamping contact with the clamping trough and thereby anchors the cutting plate, and the clamping element is guided by way of a chamfer in such a way that when the clamping screw is tightened the clamping element is drawn in the clamping direction, characterised in that d. the clamping element is arranged in a groove with parallel clamping-element guides, in which the clamping element is guided in a displaceable manner in the clamping direction, wherein the clamping element has two parallel guide surfaces which rest against the clamping-element guides over an area in such a way that the clamping element is guided on both sides in the groove, e. arranged in the clamping element there is a clamping-element bore for the clamping screw and in the clamped state of the cutting plate the wall of the clamping-element bore facing the cutting plate rests against the clamping screw, and f. the engagement element, viewed from the cutting edge of the cutting plate, engages before the centre of the clamping trough into the latter in a form-locking manner. d. the clamping element is arranged in a groove with parallel clamping-element guides, in which the clamping element is guided in a displaceable manner in the clamping direction, wherein the clamping element has two parallel guide surfaces which rest against the clamping-element guides over an area in such a way that the clamping element is guided on both sides in the groove, e. arranged in the clamping element there is a clamping-element bore for the clamping screw and in the clamped state of the cutting plate the wall of the clamping-element bore facing the cutting plate rests against the clamping screw, and f. the engagement element, viewed from the cutting edge of the cutting plate, engages before the centre of the clamping trough into the latter in a form-locking manner.
A negative electrode material comprising, as an active material, silicon flakes with a hyperporous structure, represented by the following chemical formula 1: xSi ⋅ 1 − x A where 0.5≤ x ≤1.0, and A is an impurity selected from the group consisting of Al 2 O 3, MgO, SiO 2, GeO 2, Fe 2 O 3, CaO, TiO 2, Na 2 O, K 2 O, CuO, ZnO, NiO, Zr 2 O 3, Cr 2 O 3 and BaO, and wherein the silicon flakes have a hyperporous structure including macropores having a pore size in the range of greater than 50 nm to 500 nm, mesopores having a pore size of greater than 2 nm to 50 nm, and micropores having a pore size of 0.5 nm to 2 nm, the pore size being determined as described in the specification. where 0.5≤ x ≤1.0, and A is an impurity selected from the group consisting of Al 2 O 3, MgO, SiO 2, GeO 2, Fe 2 O 3, CaO, TiO 2, Na 2 O, K 2 O, CuO, ZnO, NiO, Zr 2 O 3, Cr 2 O 3 and BaO, and wherein the silicon flakes have a hyperporous structure including macropores having a pore size in the range of greater than 50 nm to 500 nm, mesopores having a pore size of greater than 2 nm to 50 nm, and micropores having a pore size of 0.5 nm to 2 nm, the pore size being determined as described in the specification.
An optoelectronic sensor for detecting a moving object in a monitoring area, the sensor having an illumination unit and an image sensor disposed opposite to one another with the monitoring area in between, as well as an evaluation unit configured to detect the object 16) from image data of the image sensor based on a shadow of the object on the image sensor, characterized in that the illumination unit comprises a plurality of individual light sources for generating a transmitted light beam wherein by superposition of the individual light sources coherences are destroyed and has an aperture arrangement which allows only a homogenous partial area of the transmission light beam to pass.
Transmission cable having a helical coil applied to a core of the cable and having a carrier, arranged on a portion of the transmission cable, in particular at one end of the transmission cable, for power transmission, for example on sunroofs or loading compartment covers of vehicles, wherein the carrier has a bore in which an internal thread corresponding to the helical coil is formed, characterized in that the internal thread is in the form of a plastics casting for screwing the carrier onto the end of the transmission cable, wherein the carrier is fixed to the transmission cable by adhesive bonding and/or fusion and/or welding.
Refrigerating appliance, in particular household refrigerating appliance, which has a cooler and/or freezer compartment comprising a rear wall (3, 23), a door and side walls (1, 2, 21, 22, 41), wherein the side walls (1, 2, 21, 22, 41) feature one or more guide elements, along which at least one shelf tray (4, 24,42) can be pulled out in the manner of a drawer, wherein each side wall (1, 2, 21, 22, 41) features at least one holding projection (5, 6, 7, 8, 25, 26, 27, 28, 43) on which the shelf tray (4, 24, 42) is so mounted that it can be displaced in the direction of the door in a pull-out direction, wherein at least one guide element (31, 32, 46, 47) is arranged on at least one holding projection (5, 6, 7, 8, 25, 26, 27, 28, 43) or on one or more side walls (1, 2, 21, 22, 41), and only extends along part of the total depth of the relevant side wall (1, 2, 21, 22, 41), and restricts any transverse movement, and in particular any vertical movement relative to its direction of displacement, of the shelf tray (4, 24, 42) that is mounted on the holding projections (5, 6, 7, 8, 25, 26, 27, 28, 43), characterised in that a rear free end (48, 49) of the guide element is designed in a sprung manner and can be moved over a small lateral distance in a transverse direction relative to the side wall.
Method for the theoretical analysis of a procedural apparatus with fluid flowing through it, wherein a theoretical, in particular numerical, simulation of the apparatus or at least of a part of the apparatus is carried out, wherein a load analysis of the apparatus is carried out with the aid of the theoretical simulation, characterized in that at least one element of the apparatus which does not contain concrete as a material is replaced in the theoretical simulation by at least one concrete element made of concrete. wherein a theoretical, in particular numerical, simulation of the apparatus or at least of a part of the apparatus is carried out, wherein a load analysis of the apparatus is carried out with the aid of the theoretical simulation, characterized in that at least one element of the apparatus which does not contain concrete as a material is replaced in the theoretical simulation by at least one concrete element made of concrete.
An exhaust gas purification device for an internal combustion engine, the exhaust gas purification device comprising: a NOx purification unit on which a NOx purification catalyst that is provided in an exhaust passage of the internal combustion engine, that captures, when exhaust gas flowing in is lean, NOx in the exhaust gas and that desorbs the captured NOx when the exhaust gas flowing in is rich so as to reduce and purify the exhaust gas is supported; an exhaust gas purification filter on which a particulate combustion catalyst that is provided in the exhaust passage on a downstream side of the NOx purification unit, that captures a particulate in the exhaust gas flowing in and that burns the captured particulate is supported; and a reproduction means configured to perform control so as to enrich the exhaust gas flowing into the NOx purification catalyst and which heats the NOx purification catalyst to a predetermined temperature so as to desorb a sulfur component captured by the NOx purification catalyst, characterized in that the particulate combustion catalyst is supported on an Al 2 O 3 carrier in a state where Ag and Pd are alloyed, an amount of Ag supported on the Al 2 O 3 carrier is 1.2 to 2.5 g/L, an amount of Pd supported on the Al 2 O 3 carrier is equal to or less than 0.7 g/L and a ratio Ag/Pd of the amount of Ag supported to the amount of Pd supported is 1.7 to 8.3. a NOx purification unit on which a NOx purification catalyst that is provided in an exhaust passage of the internal combustion engine, that captures, when exhaust gas flowing in is lean, NOx in the exhaust gas and that desorbs the captured NOx when the exhaust gas flowing in is rich so as to reduce and purify the exhaust gas is supported; an exhaust gas purification filter on which a particulate combustion catalyst that is provided in the exhaust passage on a downstream side of the NOx purification unit, that captures a particulate in the exhaust gas flowing in and that burns the captured particulate is supported; and a reproduction means configured to perform control so as to enrich the exhaust gas flowing into the NOx purification catalyst and which heats the NOx purification catalyst to a predetermined temperature so as to desorb a sulfur component captured by the NOx purification catalyst, characterized in that the particulate combustion catalyst is supported on an Al 2 O 3 carrier in a state where Ag and Pd are alloyed, an amount of Ag supported on the Al 2 O 3 carrier is 1.2 to 2.5 g/L, an amount of Pd supported on the Al 2 O 3 carrier is equal to or less than 0.7 g/L and a ratio Ag/Pd of the amount of Ag supported to the amount of Pd supported is 1.7 to 8.3.
Method for controlling an installation associated with an energy-consuming structure, this installation comprising at least one source of geothermal energy with which thermal storage is carried out, at least one other source of energy (4, CPh, CTh, ATh), items of equipment for transforming and distributing energy in the structure, and a regulating system (AUT, CU), the geothermal source comprising thermal exchange probes installed in a geothermal medium and adapted to allow heat exchange between the geothermal medium and a heat transfer fluid passing through the probes, the method comprising: • defining a forecast trajectory of the temperature of the geothermal medium over time; • evaluating at least substantially in real time the temperature of the geothermal medium and/or the thermal power exchanged with the geothermal medium; • making an adjustment of the thermal power exchanged between the heat transfer fluid and the geothermal medium in the direction of at least approximate conformity of the temperature of the geothermal medium with the forecast trajectory, wherein the forecast trajectory has, as an annual mean, a temperature differential with the temperature of the natural ground. Characterized in that: - in the case of an installation where, as an annual mean, geothermal energy supplies the structure with more heating power than cooling power, the trajectory is chosen to be, as an annual mean, below the temperature of the natural ground, - in the case of an installation where, as an annual mean, geothermal energy supplies the structure with more cooling power than heating power, the trajectory is chosen to be, as an annual mean, above the temperature of the natural ground. • defining a forecast trajectory of the temperature of the geothermal medium over time; • evaluating at least substantially in real time the temperature of the geothermal medium and/or the thermal power exchanged with the geothermal medium; • making an adjustment of the thermal power exchanged between the heat transfer fluid and the geothermal medium in the direction of at least approximate conformity of the temperature of the geothermal medium with the forecast trajectory, wherein the forecast trajectory has, as an annual mean, a temperature differential with the temperature of the natural ground. - in the case of an installation where, as an annual mean, geothermal energy supplies the structure with more heating power than cooling power, the trajectory is chosen to be, as an annual mean, below the temperature of the natural ground, - in the case of an installation where, as an annual mean, geothermal energy supplies the structure with more cooling power than heating power, the trajectory is chosen to be, as an annual mean, above the temperature of the natural ground.
A static field mass filter for a mass spectrometer comprising: an entrance aperture configured to receive an ion beam from an ion source; an exit aperture configured to eject ions, the static field mass filter defining a longitudinal symmetry axis between the entrance and exit apertures (200, 210); a first Wien filter configured to deflect ions away from the longitudinal symmetry axis in accordance with their m/z; a second Wien filter configured to deflect the ions back towards the longitudinal symmetry axis in accordance with their m/z; an inverting lens positioned along the longitudinal symmetry axis between the first and second Wien filters (220, 230), to invert the direction of deflection of the ions from the first Wien filter, and a diaphragm located between the first and the second Wien filters (220, 230), the diaphragm having an aperture configured to allow passage of at least some of the ion species exiting the first Wien filter, characterized in that the static field mass filter further comprises an entrance lens located between the entrance aperture and the first Wien filter; an exit lens located between the second Wien filter and the exit aperture. an entrance aperture configured to receive an ion beam from an ion source; an exit aperture configured to eject ions, the static field mass filter defining a longitudinal symmetry axis between the entrance and exit apertures (200, 210); a first Wien filter configured to deflect ions away from the longitudinal symmetry axis in accordance with their m/z; a second Wien filter configured to deflect the ions back towards the longitudinal symmetry axis in accordance with their m/z; an inverting lens positioned along the longitudinal symmetry axis between the first and second Wien filters (220, 230), to invert the direction of deflection of the ions from the first Wien filter, and a diaphragm located between the first and the second Wien filters (220, 230), the diaphragm having an aperture configured to allow passage of at least some of the ion species exiting the first Wien filter, characterized in that the static field mass filter further comprises an entrance lens located between the entrance aperture and the first Wien filter; an exit lens located between the second Wien filter and the exit aperture.
A device to device, D2D, device discovery method based on a Long Term Evolution, LTE, cellular communications system, comprising: acquiring, by a first D2D user equipment, UE, timing information of the first D2D UE from the LTE cellular communications system; receiving, by the first D2D UE in a first discovery subframe, a device discovery signal from a second D2D UE according to the timing information, and the device discovery signal comprises a pilot orthogonal frequency division multiplexing OFDM symbol and a device information OFDM symbol; and acquiring, by the first D2D UE, an arrival time of the device discovery signal sent by the second D2D UE by performing a time domain correlation of the pilot OFDM symbol of the device discovery signal received in the first discovery subframe and a local pilot sequence, and acquiring device information of the second D2D UE by parsing the device information OFDM symbol of the device discovery signal received in the first discovery subframe, so as to discover the second D2D UE by the first D2D UE. acquiring, by a first D2D user equipment, UE, timing information of the first D2D UE from the LTE cellular communications system; receiving, by the first D2D UE in a first discovery subframe, a device discovery signal from a second D2D UE according to the timing information, and the device discovery signal comprises a pilot orthogonal frequency division multiplexing OFDM symbol and a device information OFDM symbol; and acquiring, by the first D2D UE, an arrival time of the device discovery signal sent by the second D2D UE by performing a time domain correlation of the pilot OFDM symbol of the device discovery signal received in the first discovery subframe and a local pilot sequence, and acquiring device information of the second D2D UE by parsing the device information OFDM symbol of the device discovery signal received in the first discovery subframe, so as to discover the second D2D UE by the first D2D UE.
Cosmetic use of a composition comprising an effective amount of a peppermint extract, also called Mentha piperita, for treating dry skin or mature skin exhibiting signs of aging, photoaging, sagging or cutaneous dryness, characterized in that the composition stimulates the expression of NOTCH proteins at the level of progenitor keratinocytes, and characterized in that said peppermint extract is an extract of the aerial parts obtained by enzymatic hydrolysis in aqueous medium.
A lead-free glass composition, containing silver oxide, tellurium oxide, and vanadium oxide, further, as additional components, containing at least one of yttrium oxide, lanthanum oxide, cerium oxide, erbium oxide, ytterbium oxide, aluminum oxide, gallium oxide, indium oxide, iron oxide, tungsten oxide, and molybdenum oxide, wherein the contents (mol %) of the silver oxide, the tellurium oxide, and the vanadium oxide, when calculated in terms of the oxides as shown below, have the relationship of Ag 2 O > TeO 2 ≥ V 2 O 5, and Ag 2 O ≤ 2V 2 O 5, and wherein the content of TeO 2 is 25 mol % to 37 mol %, characterized in that when calculated in terms of the oxides, the content of Ag 2 O is equal to or greater than 40 mol % and less than 50 mol %, and the content of V 2 O 5 is equal to or greater than 20 mol % and less than 30 mol %. further, as additional components, containing at least one of yttrium oxide, lanthanum oxide, cerium oxide, erbium oxide, ytterbium oxide, aluminum oxide, gallium oxide, indium oxide, iron oxide, tungsten oxide, and molybdenum oxide, wherein the contents (mol %) of the silver oxide, the tellurium oxide, and the vanadium oxide, when calculated in terms of the oxides as shown below, have the relationship of Ag 2 O > TeO 2 ≥ V 2 O 5, and Ag 2 O ≤ 2V 2 O 5, and wherein the content of TeO 2 is 25 mol % to 37 mol %, characterized in that
A method for providing a Fine Timing Measurement, FTM, response message in an FTM session with a wireless transceiver system (204, 600, 650), comprising: receiving an FTM request from an initiating station, wherein the FTM request includes a minimum delta FTM value indicating a minimum time between consecutive fine timing measurement frames, a number of bursts exponents value indicating how many bursts are requested, and a As Soon As Possible, ASAP, value indicating the initiating station's request to start a first burst of the FTM session as soon as possible; determining if the wireless transceiver system (204, 600, 650) is capable of meeting the minimum delta FTM value and the number of bursts exponents value; sending a first FTM response message indicating the FTM session is terminated if the wireless transceiver system (204, 600, 650) is incapable of meeting the minimum delta FTM value and the number of bursts exponents value; and sending a second FTM response message including a status value based on the ASAP value in the FTM request if the wireless transceiver system (204, 600, 650) is capable of meeting the minimum delta FTM value and the number of bursts exponents value. receiving an FTM request from an initiating station, wherein the FTM request includes a minimum delta FTM value indicating a minimum time between consecutive fine timing measurement frames, a number of bursts exponents value indicating how many bursts are requested, and a As Soon As Possible, ASAP, value indicating the initiating station's request to start a first burst of the FTM session as soon as possible; determining if the wireless transceiver system (204, 600, 650) is capable of meeting the minimum delta FTM value and the number of bursts exponents value; sending a first FTM response message indicating the FTM session is terminated if the wireless transceiver system (204, 600, 650) is incapable of meeting the minimum delta FTM value and the number of bursts exponents value; and sending a second FTM response message including a status value based on the ASAP value in the FTM request if the wireless transceiver system (204, 600, 650) is capable of meeting the minimum delta FTM value and the number of bursts exponents value.