mhurhangee/ep-ind-claims huggingface dataset:
Aerosol odor treating aqueous-based composition comprising (a) 0.1 to 10 wt.% of at least one alkylene glycol; (b) 0.1 to 4 wt.% of at least one surfactant, wherein one or more of said at least one surfactant has a hydrophile-lipophile-balance of 7 to 20; (c) 0.1 to 5 wt.% of compressed gas propellant at maximum of 12.4 bar at room temperature; (d) 0.01 to 5 wt.% of a buffering system; (e) 0.01 to 10 wt.% of at least one fragrance; and (f) a balance of water; wherein said composition has a volatile organic compound content of less than 5.0% based on 100 wt.% of the composition, and does not contain any volatile solvent for solubilizing the fragrance; wherein said at least one fragrance is solubilized by (i) said at least one surfactant, or (ii) said at least one alkylene glycol, or (iii) said at least one surfactant and said at least one alkylene glycol; and wherein said composition has a pH of 4 to 8. (a) 0.1 to 10 wt.% of at least one alkylene glycol; (b) 0.1 to 4 wt.% of at least one surfactant, wherein one or more of said at least one surfactant has a hydrophile-lipophile-balance of 7 to 20; (c) 0.1 to 5 wt.% of compressed gas propellant at maximum of 12.4 bar at room temperature; (d) 0.01 to 5 wt.% of a buffering system; (e) 0.01 to 10 wt.% of at least one fragrance; and (f) a balance of water; (i) said at least one surfactant, or (ii) said at least one alkylene glycol, or (iii) said at least one surfactant and said at least one alkylene glycol; and
A fastening system for covering elements, with an anchoring profiled element (5, 5', 5") that can be mounted to a substructure and a clip element that can be mounted to the covering element and can be latched to the anchoring profiled element (5, 5', 5"), wherein the anchoring profiled element (5, 5', 5") has at least one latching protrusion (13, 14) on each of two opposite faces (7, 8; 9, 10) and the clip element has the shape of a U with a central web and two legs (20, 21), wherein, in the latched position, the clip element engages over the anchoring profiled element (5, 5', 5") in the manner of a clamp and, thereby, each leg (20, 21) latches to a latching protrusion (13, 14) in the manner of a snap hook, characterized in that the anchoring profiled element (5, 5', 5") bears one connecting part and the clip element bears the other connecting part of a tongue-and-groove joint (25, 26) which blocks the clip element from shifting in the longitudinal profile direction of the anchoring profiled element (5, 5', 5") in the latched position of the clip element on the anchoring profiled element (5, 5', 5").
Holding device for a casing, with two holding parts which each comprise an attachment portion that is configured so as to be attached to an attachment surface by means of an attachment means, wherein each holding part has a holding portion extending in a longitudinal direction, with at least two fixing parts which can be fixed to the casing, and each of which can be brought into engagement with the holding portion of an assigned holding part in order to create a connection, and which, when the connection is created, allows a relative movement in the longitudinal direction between the fixing part and the holding part, with a connecting part which is configured for releasable connection to the two holding parts and which, when the connection is created, is arranged at a distance from the holding portions in the longitudinal direction, and with a locking part which can be fixed to the casing, characterised in that the locking part can be brought into engagement with a locking portion on one of the two holding parts such that the relative movement in the longitudinal direction between the fixing part and the holding part is limited or suppressed, that the connecting part comprises two connecting elements which can be displaced on each other or into each other, whereby the dimension of the connecting part can be changed, that the connecting part has at least one securing portion which, when the connection of the connecting part to the two holding parts is created, limits or suppresses a movement of an assigned locking part in the longitudinal direction, and that the two holding parts are designed as separate holding parts and are configured to be attached to the attachment surface with an arbitrary spacing.
A memory device, comprising: a plurality of MTJ pillars, each MTJ pillar located below a top electrode and above a bottom electrode comprising an MRAM array, the bottom electrode being disposed above a substrate and surrounded by a first dielectric spacer, the top electrode being disposed above each MTJ pillar and surrounded by a second dielectric spacer; a bottom metal plate on opposing sides of the bottom electrode between a first dielectric layer and a second dielectric layer, the bottom metal plate being electrically separated from the bottom electrode by the first dielectric spacer; and a top metal plate on opposing sides of the top electrode between a third dielectric layer and a fourth dielectric layer, the top metal plate being electrically separated from the top electrode by the second dielectric spacer, the top metal plate and the bottom metal plate generating an external electric field to each MTJ pillar for creating a voltage-controlled magnetic anisotropy effect. a plurality of MTJ pillars, each MTJ pillar located below a top electrode and above a bottom electrode comprising an MRAM array, the bottom electrode being disposed above a substrate and surrounded by a first dielectric spacer, the top electrode being disposed above each MTJ pillar and surrounded by a second dielectric spacer; a bottom metal plate on opposing sides of the bottom electrode between a first dielectric layer and a second dielectric layer, the bottom metal plate being electrically separated from the bottom electrode by the first dielectric spacer; and a top metal plate on opposing sides of the top electrode between a third dielectric layer and a fourth dielectric layer, the top metal plate being electrically separated from the top electrode by the second dielectric spacer, the top metal plate and the bottom metal plate generating an external electric field to each MTJ pillar for creating a voltage-controlled magnetic anisotropy effect.
A field controller and sensor (20, 200) to monitor directly within a plant canopy comprising an elongate body having a hollow interior and axially opposite first and second ends with a first arm extending outward from the elongate body adjacent to the first axial end and a second arm extending outward from the elongate body adjacent to the second, axially opposite end, each of the arms having an imaging device mounted thereon, the first arm imaging device being positioned to obtain images in a direction toward the second axial end of the elongate body, the second arm imaging device being positioned to obtain images in a direction toward the first axial end, the first and second arms being spaced apart from one another along a length of the elongate body at a distance sufficient to image a canopy of crop growth in a field in which the field controller and sensor is deployed, characterized in that the elongate body comprises a plurality of sensors configured to sense a like environmental and crop characteristic, the sensors being at least three and including at least one for sensing temperature, humidity, CO 2, barometric pressure, light quantity and quality, wind speed and direction, and rainfall, the plurality of sensors being arranged with a common spacing interval along a length of the elongate body.
An internal combustion engine - with at least one engine block, which contains a plurality of cylinders and has at least one flange component, - with at least one attachment part which is fastened to the flange component, - wherein an alignment device is provided to align the attachment part relative to the flange component when attaching the attachment part to the flange component, - wherein the alignment device has at least three separate alignment units, spaced apart from one another, - wherein at least one such alignment unit brings about an aligning of the attachment part to the cylinder head with regard to a first aligning direction, which is oriented perpendicularly to an attaching direction, in which the attachment part is attached to the cylinder head, characterized in - that at least one other such alignment unit brings about an aligning of the attachment part to the cylinder head with respect to a second aligning direction, which is oriented perpendicularly to the attaching direction and inclined to the first aligning direction, - that each alignment unit brings about an aligning of the attachment part to the cylinder head exclusively either in the first aligning direction or in the second aligning direction. - with at least one engine block, which contains a plurality of cylinders and has at least one flange component, - with at least one attachment part which is fastened to the flange component, - wherein an alignment device is provided to align the attachment part relative to the flange component when attaching the attachment part to the flange component, - wherein the alignment device has at least three separate alignment units, spaced apart from one another, - wherein at least one such alignment unit brings about an aligning of the attachment part to the cylinder head with regard to a first aligning direction, which is oriented perpendicularly to an attaching direction, in which the attachment part is attached to the cylinder head, characterized in - that at least one other such alignment unit brings about an aligning of the attachment part to the cylinder head with respect to a second aligning direction, which is oriented perpendicularly to the attaching direction and inclined to the first aligning direction, - that each alignment unit brings about an aligning of the attachment part to the cylinder head exclusively either in the first aligning direction or in the second aligning direction.
A process for utilizing a hydrocarbon-comprising and carbon dioxide-comprising coproduct gas, accompanying gas and/or biogas, wherein hydrocarbon-comprising and carbon dioxide-comprising coproduct gas, accompanying gas and/or biogas is introduced into a reaction space and the multicomponent mixture comprised in the coproduct gas, accompanying gas and/or biogas is converted in a high-temperature zone at temperatures in the range from 1100 to 1400°C and in the presence of a carrier into a product gas mixture which comprises more than 95% of CO, CO 2, H 2, H 2 O, CH 4 and N 2 where the carrier is conveyed as moving bed through the reaction space and the gas mixture of coproduct gas, accompanying gas and/or biogas is conveyed in countercurrent to the carrier and the hot synthesis gas formed in the high-temperature zone is conveyed further in countercurrent through the moving bed and is cooled by direct heat exchange with this, where the flow velocity of the gas mixture of coproduct gas, accompanying gas and/or biogas in the reaction zone is less than 20 m/s and the synthesis gas formed in the high-temperature zone is cooled at > 200 K/s.
Burner, wherein air and/or oxygen is supplied which flows in a flow direction, wherein the burner has a channel in which a medium flows, wherein at least one swirl blade is disposed in the channel, wherein the swirl blade has a bladed disk which is wound around a winding axis such that the gas flowing past the swirl blade in the flow direction along an edge of the bladed disk which forms an intersecting angle not equal to zero with the flow direction has different outflow angles (α), so that the air and/or oxygen have a distribution of an outflow angle in a plane perpendicular to the flow direction, and the distribution of the outflow angle is not constant in order to avoid combustion instabilities during operation of the burner, wherein the burner has a burner longitudinal axis, which represents the interior area of the burner, wherein the burner has a radial direction disposed perpendicularly to the burner longitudinal axis, wherein the outflow angle (α) between its flow direction and a plane perpendicular to the burner longitudinal axis of a gas flowing past the swirl blade has different outflow angles (α) in the radial direction on the swirl blade, characterised in that the outflow angle (α) decreases in the radial direction from the interior to the exterior.
A motor for a washing machine comprising: a stator having an AC power applied thereto; a rotor core on an outer side of the stator mounted so as to be rotatable by interaction of electromagnetic force with respect to the stator; a rotor frame arranged to surround the outer side of the stator; rotor core securing means formed along a side of the rotor frame for seating, and securing the rotor core, and preventing the rotor core from moving in up/down directions, and strength reinforcing means for improving strength of the rotor frame, wherein the strength reinforcing means are notches at a corner which connects a lower surface and a side surface of the rotor frame, and wherein the rotor core securing means includes; a rotor core securing portion for seating the rotor core on an inside surface of the rotor frame, and lower projections projected inwardly from a lower portion of the rotor core securing portion for supporting a lower end of the rotor core, characterized by upper projections projected inwardly from an upper portion of the rotor core securing portion for holding an upper end of the rotor core, wherein the lower, and upper projections (154, 155) are formed as the side of the rotor frame is punched inwardly from an outside to an inside. a stator having an AC power applied thereto; a rotor core on an outer side of the stator mounted so as to be rotatable by interaction of electromagnetic force with respect to the stator; a rotor frame arranged to surround the outer side of the stator; rotor core securing means formed along a side of the rotor frame for seating, and securing the rotor core, and preventing the rotor core from moving in up/down directions, and strength reinforcing means for improving strength of the rotor frame, wherein the strength reinforcing means are notches at a corner which connects a lower surface and a side surface of the rotor frame, and wherein the rotor core securing means includes; a rotor core securing portion for seating the rotor core on an inside surface of the rotor frame, and lower projections projected inwardly from a lower portion of the rotor core securing portion for supporting a lower end of the rotor core, characterized by upper projections projected inwardly from an upper portion of the rotor core securing portion for holding an upper end of the rotor core, wherein the lower, and upper projections (154, 155) are formed as the side of the rotor frame is punched inwardly from an outside to an inside.
An apparatus for positioning an endovascular device in or near the heart (400; 504; 604; 704) using electrocardiogram signals, comprising an electronic module (130; 250; 300) for carrying out the steps of: receiving an endovascular ECG signal, associated with the endovascular device, including a plurality of waveforms, each waveform having at least a P-wave component; characterized in that the apparatus further comprises a computer module (140; 390) for carrying out the steps of: processing the endovascular ECG signal, over a plurality of predetermined time periods, to calculate a P-wave amplitude and a spectral power for each predetermined time period; determining a maximum P-wave amplitude from the plurality of P-wave amplitudes, and an associated maximum spectral power from the plurality of spectral powers; associating the maximum P-wave amplitude and the maximum spectral power with a predetermined location in or near the heart; calculating a location of the endovascular device, for each predetermined time period, based on a ratio of the P-wave amplitude to the maximum P-wave amplitude and a ratio of the spectral power to the maximum spectral power; and displaying the location of the endovascular device to a user. receiving an endovascular ECG signal, associated with the endovascular device, including a plurality of waveforms, each waveform having at least a P-wave component; characterized in that the apparatus further comprises a computer module (140; 390) for carrying out the steps of: processing the endovascular ECG signal, over a plurality of predetermined time periods, to calculate a P-wave amplitude and a spectral power for each predetermined time period; determining a maximum P-wave amplitude from the plurality of P-wave amplitudes, and an associated maximum spectral power from the plurality of spectral powers; associating the maximum P-wave amplitude and the maximum spectral power with a predetermined location in or near the heart; calculating a location of the endovascular device, for each predetermined time period, based on a ratio of the P-wave amplitude to the maximum P-wave amplitude and a ratio of the spectral power to the maximum spectral power; and displaying the location of the endovascular device to a user. processing the endovascular ECG signal, over a plurality of predetermined time periods, to calculate a P-wave amplitude and a spectral power for each predetermined time period; determining a maximum P-wave amplitude from the plurality of P-wave amplitudes, and an associated maximum spectral power from the plurality of spectral powers; associating the maximum P-wave amplitude and the maximum spectral power with a predetermined location in or near the heart; calculating a location of the endovascular device, for each predetermined time period, based on a ratio of the P-wave amplitude to the maximum P-wave amplitude and a ratio of the spectral power to the maximum spectral power; and displaying the location of the endovascular device to a user.
Mounting assembly for mounting a locking device in or on a leaf of a door, of a window or similar, wherein the mounting assembly has a lock case and a locking bar formed as a tube, wherein the locking bar and the lock case can be arranged covered in the frame of the leaf in such a way that the lock case can be inserted into a receiving opening in the leaf and the locking bar can be connected with its one end to a connection device of the lock case and protrudes with its other free end through a passage opening of the leaf (1, 11), characterised in that a flexible guiding element is provided which can be arranged in the locking bar passing through the locking bar axially, wherein the flexible guiding element can be arranged with its lock case-side end on or in the connection device of the lock case and extends with its lock case-remote end beyond the free end of the locking bar.
An orthopedic implant comprising: a bone interface member having a bone contact surface; and a water swellable, water permeable interpenetrating polymer network or semi-IPN member having a bearing surface and an attachment zone, the attachment zone being attached to the bone interface member, the water swellable IPN or semi-IPN member comprising a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments, a second polymer network comprising a non-ionic polymer, and a third polymer network comprising an ionic polymer containing sulfonic acid functional groups, wherein the water swellable, water permeable IPN or semi-IPN member includes a compositional gradient between the bearing surface and the attachment zone, and the second and third polymer networks are each formed within the same subset of polymer segments of the hydrophobic thermoset or thermoplastic polymer. a bone interface member having a bone contact surface; and a water swellable, water permeable interpenetrating polymer network or semi-IPN member having a bearing surface and an attachment zone, the attachment zone being attached to the bone interface member, the water swellable IPN or semi-IPN member comprising a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments, a second polymer network comprising a non-ionic polymer, and a third polymer network comprising an ionic polymer containing sulfonic acid functional groups, wherein the water swellable, water permeable IPN or semi-IPN member includes a compositional gradient between the bearing surface and the attachment zone, and the second and third polymer networks are each formed within the same subset of polymer segments of the hydrophobic thermoset or thermoplastic polymer.
A method for determining a location for a home evolved Node B, HeNB, comprising the steps of, at the HeNB: receiving, from one or more devices in a wireless network in which the HeNB communicates wirelessly, one or more positioning measurements measured in each case by the one or more devices; determining a location of the HeNB based at least in part on the one or more positioning measurements; and transmitting the one or more positioning measurements to a positioning server as one or more positioning parameters for allowing subsequent positioning determination of another device. receiving, from one or more devices in a wireless network in which the HeNB communicates wirelessly, one or more positioning measurements measured in each case by the one or more devices; determining a location of the HeNB based at least in part on the one or more positioning measurements; and transmitting the one or more positioning measurements to a positioning server as one or more positioning parameters for allowing subsequent positioning determination of another device.
A transport system, comprising: at least one running rail having at least one running rail section and at least one movable transport device, which is guided along the at least one running rail section, wherein the running rail section comprises a first running surface, wherein the first running surface comprises a substantially rounded surface and includes a guide center, wherein the guide center essentially forms a geometric circle center, the circular surface of which approximately encloses the rounded surface of the first running surface, wherein the transport device comprises at least a first roller which rotatably abuts on the first running surface, wherein the first roller is rotatably mounted at at least one movable element of a base body of the transport device in order to carry out a pivoting movement along the substantially rounded surface of the first running surface, characterized in that a rotational axis of the movable element and the guide center are arranged substantially at the same height for the pivoting movement. at least one running rail having at least one running rail section and at least one movable transport device, which is guided along the at least one running rail section, wherein the running rail section comprises a first running surface, wherein the first running surface comprises a substantially rounded surface and includes a guide center, wherein the guide center essentially forms a geometric circle center, the circular surface of which approximately encloses the rounded surface of the first running surface, wherein the transport device comprises at least a first roller which rotatably abuts on the first running surface, wherein the first roller is rotatably mounted at at least one movable element of a base body of the transport device in order to carry out a pivoting movement along the substantially rounded surface of the first running surface, characterized in that a rotational axis of the movable element and the guide center are arranged substantially at the same height for the pivoting movement.