mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoelectric conversion module comprising: a thermoelectric conversion element ; a container ; a heat storage material accommodated in the container ; and a first heat transfer member thermally coupled to one side of the thermoelectric conversion element and thermally coupled to the heat storage material , characterised in that the first heat transfer member includes a portion made of a solid-solid phase transition system heat storage material having a thermal conductivity higher than a thermal conductivity of the heat storage material and having a transition temperature different from a transition temperature of the heat storage material . a thermoelectric conversion element ; a container ; a heat storage material accommodated in the container ; and a first heat transfer member thermally coupled to one side of the thermoelectric conversion element and thermally coupled to the heat storage material , characterised in that the first heat transfer member includes a portion made of a solid-solid phase transition system heat storage material having a thermal conductivity higher than a thermal conductivity of the heat storage material and having a transition temperature different from a transition temperature of the heat storage material .
A gypsum composition for a drying type coating material, the gypsum composition comprising: hemihydrate gypsum having a mean particle diameter of 50 μm or less; calcium carbonate having a mean particle diameter of 50 μm or less; and a setting retarder, wherein the gypsum composition has a content of the calcium carbonate of 10 to 400 parts by mass and a content of the setting retarder of 0.1 parts by mass or more each based on 100 parts by mass of the hemihydrate gypsum, wherein the mean particle diameter refers to a volume mean diameter measured using a particle size distribution measurement apparatus using a laser diffraction/scattering method; wherein the setting retarder is at least one selected from the group consisting of citric acid, succinic acid, acetic acid, malic acid, ethylenediaminetetraacetic acid, diethylenetriaminepentaacetic acid, and salts thereof, and sucrose, starch, and decomposition products of protein; and wherein the gypsum composition is substantially free of a setting accelerator. hemihydrate gypsum having a mean particle diameter of 50 μm or less; calcium carbonate having a mean particle diameter of 50 μm or less; and a setting retarder, wherein the gypsum composition has a content of the calcium carbonate of 10 to 400 parts by mass and a content of the setting retarder of 0.1 parts by mass or more each based on 100 parts by mass of the hemihydrate gypsum, wherein the setting retarder is at least one selected from the group consisting of citric acid, succinic acid, acetic acid, malic acid, ethylenediaminetetraacetic acid, diethylenetriaminepentaacetic acid, and salts thereof, and sucrose, starch, and decomposition products of protein; and wherein the gypsum composition is substantially free of a setting accelerator.
A method for reusing a tag, the method being performed in a service function node of a mobile communication network and comprising the steps of: receiving an uplink packet originating from a wireless device, wherein the uplink packet includes at least one tag identifying a service function to be performed based on the uplink packet; obtaining the at least one tag from the uplink packet based on the service function to be performed in the service function node, wherein each tag is a name value pair added by a node after the packet leaves the wireless device; and adding the at least one tag to a downlink packet destined for the wireless device in response to the uplink packet, wherein the at least one tag influences how the downlink packet is forwarded receiving a movement indicator comprising a reference to a target radio network node being associated with the wireless device; and adjusting the at least one tag such that it comprises information of the target radio network node associated with the wireless device in a case of movement of the wireless device from a source radio network node to the target radio network node , resulting in an adjusted tag. receiving an uplink packet originating from a wireless device, wherein the uplink packet includes at least one tag identifying a service function to be performed based on the uplink packet; obtaining the at least one tag from the uplink packet based on the service function to be performed in the service function node, wherein each tag is a name value pair added by a node after the packet leaves the wireless device; and adding the at least one tag to a downlink packet destined for the wireless device in response to the uplink packet, wherein the at least one tag influences how the downlink packet is forwarded receiving a movement indicator comprising a reference to a target radio network node being associated with the wireless device; and adjusting the at least one tag such that it comprises information of the target radio network node associated with the wireless device in a case of movement of the wireless device from a source radio network node to the target radio network node , resulting in an adjusted tag.
An amphibious vehicle comprising: a drive train; a plurality of ground engaging wheels ; a cooling system; a water propulsion system ; an inner hull which defines a passenger compartment; and an outer hull the form/shape of which below the waterline is substantially defined by a plurality of buoyancy modules that are demountably mountable to the amphibious vehicle, characterised in that one or more buoyancy modules define(s) a bow ; a stern ; and one or more wheel arches for one or more of the ground engaging wheels of the amphibious vehicle. a drive train; a plurality of ground engaging wheels ; a cooling system; a water propulsion system ; an inner hull which defines a passenger compartment; and an outer hull the form/shape of which below the waterline is substantially defined by a plurality of buoyancy modules that are demountably mountable to the amphibious vehicle, characterised in that one or more buoyancy modules define(s) a bow ; a stern ; and one or more wheel arches for one or more of the ground engaging wheels of the amphibious vehicle.
Dispenser for dispensing a flat sheet-like product, in particular paper, with a housing , which can be closed by a, preferably pivotable, cover , and at least one first pivot lever , which is mounted pivotably in the housing and with which a spare roll of the flat sheet-like product can be transferred from a waiting position of the spare roll into a delivery position of the spare roll , and at least one second pivot lever , which can be moved by the first pivot lever , wherein the at least one first pivot lever is movement-coupled to the cover of the housing such that, when the cover is opened, the pivot lever can be returned from a delivery position of the at least one first pivot lever into a waiting position of the at least one first pivot lever and the second pivot lever can be moved back and forth during the movement of the first pivot lever , characterized in that the second pivot lever comprises a first guide contour and, separate from the latter, a second guide contour , wherein the first pivot lever traces the first guide contour during the movement of transferring the spare roll from the waiting position into the delivery position and the second guide contour during the return movement into the starting position.
A method for operating a network, where a functional command is generated responsive to a user action, which is configured to execute an assigned function in a network station , wherein user data is made available for the user activating the functional command, a user identification, which is derived from the user data, is assigned to the functional command, the functional command and the user identification being transferred over the network to a network station , characterized in that the functional command includes a control command for controlling a preprogrammed process resulting from an execution of a previous functional command, wherein an identifier corresponding to a previous user identification was assigned to the preprogrammed process upon execution of the previous functional command and, upon executing the functional command, the user identification is compared with the identifier, which is assigned to the preprogrammed process, wherein it is established that the functional command is approved in connection with the assigned user identification if the user identification matches the identifier.
A method performed by a receiving device, the method comprising: a.) receiving a wireless packet in a 60GHz frequency band comprising a short training field, STF, b.) determining a first quantity of cross-correlation peaks between the STF and a first preamble sequence, and a second quantity of cross-correlation peaks between the STF and a second preamble sequence (step 804), c.) determining whether one condition among a first and second condition is fulfilled, wherein the first condition is that the first quantity of cross-correlation peaks equals a first threshold and the second condition is that the second quantity of cross-correlation peaks equals a second threshold (step 806), d.) in case of yes in step c.), determining that the wireless packet is a first packet type (step 808), e.) in case of no in step c.), determining whether one condition among a third and a fourth condition is fulfilled, wherein the third condition is that the first quantity of cross-correlation peaks equals the second threshold and the fourth condition is that the second quantity of cross-correlation peaks equals the first threshold (step 812), f.) in case of yes in step e.), determining that the wireless packet is a second packet type (step 814), g.) in case of no in step e.), ending the method. a.) receiving a wireless packet in a 60GHz frequency band comprising a short training field, STF, b.) determining a first quantity of cross-correlation peaks between the STF and a first preamble sequence, and a second quantity of cross-correlation peaks between the STF and a second preamble sequence (step 804), c.) determining whether one condition among a first and second condition is fulfilled, wherein the first condition is that the first quantity of cross-correlation peaks equals a first threshold and the second condition is that the second quantity of cross-correlation peaks equals a second threshold (step 806), d.) in case of yes in step c.), determining that the wireless packet is a first packet type (step 808), e.) in case of no in step c.), determining whether one condition among a third and a fourth condition is fulfilled, wherein the third condition is that the first quantity of cross-correlation peaks equals the second threshold and the fourth condition is that the second quantity of cross-correlation peaks equals the first threshold (step 812), f.) in case of yes in step e.), determining that the wireless packet is a second packet type (step 814), g.) in case of no in step e.), ending the method.
Method of aligning at least one lateral guiding straight-edge (20-1 ... 20-4) for lateral bounding of a transport path for a product, particularly a rolling material to be rolled, through a roll stand , wherein the lateral guiding straight-edge (20-1 ... 20-4) is movable transversely to the transport path into and out of this with the help of at least two actuators (A1 ... A8) which are pivoted at the lateral guiding straight-edge at the outer side at at least two points of engagement, characterised in that the method comprises the following steps: defining the centre axis of the transport path; moving all actuators (A1 ... A8) of the lateral guiding straight-edge (20-1 ... 20-4) into the respective minimum moved-out position thereof so that the lateral guiding straight-edge is at a maximum spacing from the centre axis of the transport path; determining the right-angular spacings ai of at least two measuring points i, wherein i ≥ 2, per lateral guiding straight-edge (20-1 ... 20-4) from the centre axis when the actuators are moved into the respective minimum moved-out position thereof, wherein the measuring points respectively represent the points of pivotation of the actuators (A1 ... A8) at the lateral guiding straight-edges; determining the minimum amin of the determined right-angular spacings; calculating an individual calibration stroke Δi for each of the i actuators, wherein i ≥ 2, as follows: Δi = ai - amin; and calibrating the actuators (A1 ... A8) by changing the moved-out position thereof - starting from the respective minimum moved-out position thereof - to a calibrated moved-out position by the respective individual calibration stroke Δi thereof. defining the centre axis of the transport path; moving all actuators (A1 ... A8) of the lateral guiding straight-edge (20-1 ... 20-4) into the respective minimum moved-out position thereof so that the lateral guiding straight-edge is at a maximum spacing from the centre axis of the transport path; determining the right-angular spacings ai of at least two measuring points i, wherein i ≥ 2, per lateral guiding straight-edge (20-1 ... 20-4) from the centre axis when the actuators are moved into the respective minimum moved-out position thereof, wherein the measuring points respectively represent the points of pivotation of the actuators (A1 ... A8) at the lateral guiding straight-edges; determining the minimum amin of the determined right-angular spacings; calculating an individual calibration stroke Δi for each of the i actuators, wherein i ≥ 2, as follows: Δi = ai - amin; and calibrating the actuators (A1 ... A8) by changing the moved-out position thereof - starting from the respective minimum moved-out position thereof - to a calibrated moved-out position by the respective individual calibration stroke Δi thereof.
A porous ceramic body comprising: a predominant crystalline phase of non-stoichiometric cordierite and a composition on a relative oxide weight percent basis in terms of MgO, Al 2 O 3 , and SiO 2 that is within a field defined by (15.4, 34.1, and 50.5), (12.2, 34.1, and 53.7), (13.3, 31.2, and 55.5), and (16.6, 31.1, and 52.3); % P ≥ 50 % ; and d f ≤ 0.50 , wherein %P is average bulk porosity by volume, and d f = (d 50 -d 10 )/d 50 , wherein d 50 is a median pore size of the porous ceramic body. a predominant crystalline phase of non-stoichiometric cordierite and a composition on a relative oxide weight percent basis in terms of MgO, Al 2 O 3 , and SiO 2 that is within a field defined by (15.4, 34.1, and 50.5), (12.2, 34.1, and 53.7), (13.3, 31.2, and 55.5), and (16.6, 31.1, and 52.3); % P ≥ 50 % ; and d f ≤ 0.50 , wherein %P is average bulk porosity by volume, and d f = (d 50 -d 10 )/d 50 , wherein d 50 is a median pore size of the porous ceramic body.
An electrode comprising: an active material-containing layer containing active material particles, and the active material particles containing particles of a lithium-containing nickel-cobalt-manganese composite oxide represented by the following Formula : Li 1-x Ni 1-a-b Co a Mn b O 2 , in the Formula , x is in a range of -0.2 ≤ x ≤ 0.5, a is in a range of 0 < a ≤ 0.4, and b is in a range of 0 < b ≤ 0.4, a logarithmic differential pore volume distribution curve of the active material-containing layer determined by a mercury intrusion method as described in the specification includes a first peak and a second peak, the first peak is a local maximum value in a range where a pore size is from 0.1 μm or more to 0.5 μm or less, the second peak is a local maximum value in a range where the pore size is from 0.5 um or more to 1.0 μm or less and in a range where the pore size is larger than the pore size of the first peak, an intensity A1 of the first peak and an intensity A2 of the second peak satisfy a relational expression of 0.1 ≤ A2/A1 ≤ 0.3, and a density of the active material-containing layer is from 2.9 g/cm 3 or more to 3.3 g/cm 3 or less. an active material-containing layer containing active material particles, and the active material particles containing particles of a lithium-containing nickel-cobalt-manganese composite oxide represented by the following Formula : Li 1-x Ni 1-a-b Co a Mn b O 2 , in the Formula , x is in a range of -0.2 ≤ x ≤ 0.5, a is in a range of 0 < a ≤ 0.4, and b is in a range of 0 < b ≤ 0.4, a logarithmic differential pore volume distribution curve of the active material-containing layer determined by a mercury intrusion method as described in the specification includes a first peak and a second peak, the first peak is a local maximum value in a range where a pore size is from 0.1 μm or more to 0.5 μm or less, the second peak is a local maximum value in a range where the pore size is from 0.5 um or more to 1.0 μm or less and in a range where the pore size is larger than the pore size of the first peak, an intensity A1 of the first peak and an intensity A2 of the second peak satisfy a relational expression of 0.1 ≤ A2/A1 ≤ 0.3, and a density of the active material-containing layer is from 2.9 g/cm 3 or more to 3.3 g/cm 3 or less.
Rail vehicle braking system, comprising a braking linkage and a service brake and/or parking brake configured to act on at least one braking member of said rail vehicle via said braking linkage, which linkage is provided with at least one device having at least one lining mounting and at least one lining mechanically connected to said at least one lining mounting, and with at least one lever extending from said service brake and/or parking brake to said device, characterized in that said at least one lever is mechanically connected to said at least one lining mounting, on an attachment region thereof which is located away from said at least one lining and which is at most 35 mm from a transverse central axis of said device.
Dishwasher, comprising a washing chamber in which at least one upper basket and at least one lower basket for receiving the washing load are or can be arranged, wherein the upper basket can receive more delicate washing load and the lower basket can receive more stable washing load, further comprising a washing liquid circulation system distributing washing liquid within the washing chamber by means of an upper spray arm and a lower spray arm and having at least one pump for supplying washing liquid to both spray arms and further comprising liquid heating means for heating the washing liquid, such that the washing liquid can be heated up at least to a first temperature T 1 , usually between 45°C and 50°C and subsequently to a second temperature T 2 , which can be 65°C or higher, wherein the first temperature T 1 is lower than the second temperature T 2 , and characterised in that the dishwasher is configured that the supply of the washing liquid to the upper spray arm is stopped by the washing liquid circulation system when the washing liquid temperature exceeds the first temperature T 1 and is not continued before the washing liquid temperature falls upon or below the first temperature T 1 , while the lower spray arm is still continued being supplied with washing liquid and wherein the pump speed of the at least one pump is reduced during heating up the washing liquid from the first temperature T 1 to the second temperature T 2 .
A photoelectric sensor including at least any one of a light projecting unit for emitting light and a light receiving unit for detecting light, comprising: a substrate on which at least any one of the light projecting unit and the light receiving unit is mounted; a cover which has a protecting portion facing the substrate and for protecting the substrate and a side wall extending from a periphery of the protecting portion ; and a sealing member which seals at least any one of the light projecting unit and the light receiving unit that is mounted on the substrate , wherein the cover has a protruding portion on a surface which is positioned outside a side surface of the substrate and intersects an extending direction of the side wall , and the protruding portion is in contact with the sealing member , the photoelectric sensor being characterized in that the protruding portion extends on a peripheral edge of the cover to surround the substrate in a plan view of the substrate. a substrate on which at least any one of the light projecting unit and the light receiving unit is mounted; a cover which has a protecting portion facing the substrate and for protecting the substrate and a side wall extending from a periphery of the protecting portion ; and a sealing member which seals at least any one of the light projecting unit and the light receiving unit that is mounted on the substrate , wherein the cover has a protruding portion on a surface which is positioned outside a side surface of the substrate and intersects an extending direction of the side wall , and the protruding portion is in contact with the sealing member , the photoelectric sensor being characterized in that the protruding portion extends on a peripheral edge of the cover to surround the substrate in a plan view of the substrate.
A secondary battery, comprising an electrode assembly , a case and a cap assembly ; the electrode assembly comprising a first electrode member , a second electrode member and a separator , the separator being provided between the first electrode member and the second electrode member ; the case having an opening and receiving the electrode assembly ; the cap assembly comprising a cap plate and a first electrode terminal provided to the cap plate , the cap plate covering the opening of the case ; the cap plate having an electrolyte injection hole ; the first electrode member comprising a main portion (P1), a first protruding portion (P2) and a second protruding portion (P3), the first protruding portion (P2) being connected with an end of the main portion (P1) close to the cap plate , the second protruding portion (P3) electrically connecting the first protruding portion (P2) and the first electrode terminal ; in a width direction (X), the first protruding portion (P2) extending to a lower side of the electrolyte injection hole , and a first end (P21) of the first protruding portion (P2) close to the electrolyte injection hole being beyond the second protruding portion (P3); in a height direction (Z), a projection of the electrolyte injection hole overlapping a projection of the first protruding portion (P2). the electrode assembly comprising a first electrode member , a second electrode member and a separator , the separator being provided between the first electrode member and the second electrode member ; the case having an opening and receiving the electrode assembly ; the cap assembly comprising a cap plate and a first electrode terminal provided to the cap plate , the cap plate covering the opening of the case ; the cap plate having an electrolyte injection hole ; the first electrode member comprising a main portion (P1), a first protruding portion (P2) and a second protruding portion (P3), the first protruding portion (P2) being connected with an end of the main portion (P1) close to the cap plate , the second protruding portion (P3) electrically connecting the first protruding portion (P2) and the first electrode terminal ; in a width direction (X), the first protruding portion (P2) extending to a lower side of the electrolyte injection hole , and a first end (P21) of the first protruding portion (P2) close to the electrolyte injection hole being beyond the second protruding portion (P3); in a height direction (Z), a projection of the electrolyte injection hole overlapping a projection of the first protruding portion (P2).