mhurhangee/ep-ind-claims huggingface dataset:
A method of installation, at a construction lining a shore at a shoreline of a body of water, of a self-actuating flood guard unit which, when deployed in a series, can be used to provide a shoreline defense against a rising body of water, the method of installation comprising providing: a buoyant gate having proximal, distal, and lateral sides (25, 27) a height from the proximal to distal sides, and a width between the lateral sides, a first vertical boundary wall connected to the construction at an end of the first vertical boundary wall, a second vertical boundary wall connected to the construction at an end of the second vertical boundary wall, substantially parallel to first boundary wall and spaced from said first vertical boundary wall a distance at least sufficient to accommodate the width of the buoyant gate, and pivotation members comprising a stationary member connected to said construction and a moveable member moveably joined to said stationary member, said moveable member being connected to said proximal side of said buoyant gate and pivotable about a horizontal axis normal to said boundary walls (24 and 26), said pivotation members (32 and 34) locating said proximal side of the buoyant gate at a selected elevation spaced from normally inundated ground under the body of water, between said boundary walls, for pivotation of the gate rotationally upwardly about said axis between the boundary walls on rise of water above said elevation buoyantly lifting the gate. a buoyant gate having proximal, distal, and lateral sides (25, 27) a height from the proximal to distal sides, and a width between the lateral sides, a first vertical boundary wall connected to the construction at an end of the first vertical boundary wall, a second vertical boundary wall connected to the construction at an end of the second vertical boundary wall, substantially parallel to first boundary wall and spaced from said first vertical boundary wall a distance at least sufficient to accommodate the width of the buoyant gate, and pivotation members comprising a stationary member connected to said construction and a moveable member moveably joined to said stationary member, said moveable member being connected to said proximal side of said buoyant gate and pivotable about a horizontal axis normal to said boundary walls (24 and 26), said pivotation members (32 and 34) locating said proximal side of the buoyant gate at a selected elevation spaced from normally inundated ground under the body of water, between said boundary walls, for pivotation of the gate rotationally upwardly about said axis between the boundary walls on rise of water above said elevation buoyantly lifting the gate.
A system for connecting to a wireless network in a wireless local area network, WLAN, communication, comprising: at least one storage medium including a set of instructions for connecting to the wireless network; and at least one processor in communication with the storage medium, wherein when executing the set of instructions, the at least one processor is directed to: obtain, within a dwell time, at least one packet transmitting on a current channel among a plurality of predetermined channels, wherein the plurality of predetermined channels at least include a target channel on which a connection to the wireless network is to be established; determine a matching score of the current channel based on the at least one packet, wherein the matching score reflects a likelihood that the current channel is the target channel; and determine, based on the matching score, an additional dwell time for continuing dwelling on the current channel to further evaluate the likelihood that the current channel is the target channel, wherein to determine the matching score, the at least one processor is directed to: obtain a length of each of the at least one packet; for every two adjacent packets of the at least one packet, determine a length difference between lengths of the two adjacent packets; and determine the matching score based on the length differences. at least one storage medium including a set of instructions for connecting to the wireless network; and at least one processor in communication with the storage medium, obtain, within a dwell time, at least one packet transmitting on a current channel among a plurality of predetermined channels, wherein the plurality of predetermined channels at least include a target channel on which a connection to the wireless network is to be established; determine a matching score of the current channel based on the at least one packet, wherein the matching score reflects a likelihood that the current channel is the target channel; and determine, based on the matching score, an additional dwell time for continuing dwelling on the current channel to further evaluate the likelihood that the current channel is the target channel, wherein to determine the matching score, the at least one processor is directed to: obtain a length of each of the at least one packet; for every two adjacent packets of the at least one packet, determine a length difference between lengths of the two adjacent packets; and determine the matching score based on the length differences. obtain a length of each of the at least one packet; for every two adjacent packets of the at least one packet, determine a length difference between lengths of the two adjacent packets; and determine the matching score based on the length differences.
Clutch assembly for a motor vehicle drivetrain, having a housing, at least one clutch, a first rotary element, which is embodied as a shaft or hub element and which is supported so that it can rotate in relation to the housing, and a second rotary element, which comprises a radially extending radial portion and is supported so that it can rotate in relation to the housing, an axial bearing being arranged between the first rotary element and the radial portion of the second rotary element, wherein the axial bearing is fitted centred in relation to the first rotary element, and wherein an axial locking ring is fitted to the first rotary element adjacent to the axial bearing, characterized in that a torsional locking (84, 86) is established between the axial bearing and the axial locking ring.
A method for preparing magnesium-rare earth (Mg-RE) alloys with high strength and ductility using selective laser melting additive manufacturing technology, comprising the following steps: step A: preparing Mg-RE-(Zn)-(Zr) pre-alloyed spherical powder by gas atomization; step B: molding the Mg-RE-(Zn)-(Zr) pre-alloyed spherical powder using SLM to obtain the Mg-RE alloys with high strength and ductility; and step C: conducting heat treatment on the Mg-RE alloys prepared in step B: solid solution heat treatment + aging treatment or only aging treatment, characterized in that: in step A the Mg-RE-(Zn)-(Zr) pre-alloyed spherical powder contains the following elements in weight percentages: RE 10-20%, Zn 0-2%, Zr 0-0.5%, with a balance being Mg and unavoidable impurities, wherein a total amount of the unavoidable impurities is less than 0.02%; and the RE comprises Gd, in step B, related laser parameters adopted in the SLM molding are as follows: a laser power of 80-160 W, a scanning speed of 100-1000 mm/s, a hatch spacing of 50-100 μm, and a spot diameter of 65-150 μm; and in step C, the aging treatment is conducted at 175-225°C for up to 512 h. step A: preparing Mg-RE-(Zn)-(Zr) pre-alloyed spherical powder by gas atomization; step B: molding the Mg-RE-(Zn)-(Zr) pre-alloyed spherical powder using SLM to obtain the Mg-RE alloys with high strength and ductility; and step C: conducting heat treatment on the Mg-RE alloys prepared in step B: solid solution heat treatment + aging treatment or only aging treatment, characterized in that: in step A the Mg-RE-(Zn)-(Zr) pre-alloyed spherical powder contains the following elements in weight percentages: RE 10-20%, Zn 0-2%, Zr 0-0.5%, with a balance being Mg and unavoidable impurities, wherein a total amount of the unavoidable impurities is less than 0.02%; and the RE comprises Gd, in step B, related laser parameters adopted in the SLM molding are as follows: a laser power of 80-160 W, a scanning speed of 100-1000 mm/s, a hatch spacing of 50-100 μm, and a spot diameter of 65-150 μm; and in step C, the aging treatment is conducted at 175-225°C for up to 512 h. in step A the Mg-RE-(Zn)-(Zr) pre-alloyed spherical powder contains the following elements in weight percentages: RE 10-20%, Zn 0-2%, Zr 0-0.5%, with a balance being Mg and unavoidable impurities, wherein a total amount of the unavoidable impurities is less than 0.02%; and the RE comprises Gd, in step B, related laser parameters adopted in the SLM molding are as follows: a laser power of 80-160 W, a scanning speed of 100-1000 mm/s, a hatch spacing of 50-100 μm, and a spot diameter of 65-150 μm; and in step C, the aging treatment is conducted at 175-225°C for up to 512 h.
Method for reducing the temperature tolerance of glow plugs, the method being carried out during continuous operation of the internal combustion engine, comprising the following steps: (a) classifying the glow plugs of an auto compression-ignition internal combustion engine into at least two temperature classes, wherein at least one temperature class comprises a temperature range above a target temperature range, at least one temperature class comprises a temperature range below the target temperature range and/or a temperature class comprises the target temperature range, (b) lowering the drive voltage of glow plugs which have been assigned to a temperature class which comprises a temperature range above the target temperature range, and increasing the drive voltage of glow plugs which have been assigned to a temperature class which comprises a temperature range below the target temperature range, (c) wherein, for the classification at a starting time, a first value of a drive voltage, after that a second value of a drive voltage and after that a third value for the drive voltage is applied to the glow plug, wherein the third value for the drive voltage is higher than the second value for the drive voltage and is lower than the first value for the drive voltage, (d) wherein, for the classification, current, voltage and drive time are measured and features for the classification are calculated therefrom, (e) wherein power, resistance, energy and time constant T 63 are calculated as features for the classification. (a) classifying the glow plugs of an auto compression-ignition internal combustion engine into at least two temperature classes, wherein at least one temperature class comprises a temperature range above a target temperature range, at least one temperature class comprises a temperature range below the target temperature range and/or a temperature class comprises the target temperature range, (b) lowering the drive voltage of glow plugs which have been assigned to a temperature class which comprises a temperature range above the target temperature range, and increasing the drive voltage of glow plugs which have been assigned to a temperature class which comprises a temperature range below the target temperature range, (c) wherein, for the classification at a starting time, a first value of a drive voltage, after that a second value of a drive voltage and after that a third value for the drive voltage is applied to the glow plug, wherein the third value for the drive voltage is higher than the second value for the drive voltage and is lower than the first value for the drive voltage, (d) wherein, for the classification, current, voltage and drive time are measured and features for the classification are calculated therefrom, (e) wherein power, resistance, energy and time constant T 63 are calculated as features for the classification.
A method of wireless communication performed in a mobility entity for establishing packet connectivity for local Internet Protocol access, LIPA, traffic, comprising: receiving an electronic message comprising a request for a packet data network connection, a PDN connection; determining whether the request for the PDN connection is a LIPA PDN request; and if the request for the PDN connection is determined to be a LIPA PDN request: examining the LIPA PDN request to obtain an IP address or other suitable identifier of a local gateway, L-GW, associated with the LIPA PDN request; if the L-GW is not identified by the IP address or the identifier: obtaining an IP address of an entity sending the LIPA PDN request and sending a setup request to the IP address of the entity; and if a response to this setup request is not received: initiating a domain name server DNS, query to obtain an IP address of the L-GW. receiving an electronic message comprising a request for a packet data network connection, a PDN connection; determining whether the request for the PDN connection is a LIPA PDN request; and if the request for the PDN connection is determined to be a LIPA PDN request: examining the LIPA PDN request to obtain an IP address or other suitable identifier of a local gateway, L-GW, associated with the LIPA PDN request; if the L-GW is not identified by the IP address or the identifier: obtaining an IP address of an entity sending the LIPA PDN request and sending a setup request to the IP address of the entity; and if a response to this setup request is not received: initiating a domain name server DNS, query to obtain an IP address of the L-GW. examining the LIPA PDN request to obtain an IP address or other suitable identifier of a local gateway, L-GW, associated with the LIPA PDN request; if the L-GW is not identified by the IP address or the identifier: obtaining an IP address of an entity sending the LIPA PDN request and sending a setup request to the IP address of the entity; and if a response to this setup request is not received: initiating a domain name server DNS, query to obtain an IP address of the L-GW. obtaining an IP address of an entity sending the LIPA PDN request and sending a setup request to the IP address of the entity; and if a response to this setup request is not received: initiating a domain name server DNS, query to obtain an IP address of the L-GW. initiating a domain name server DNS, query to obtain an IP address of the L-GW.
A laundry treatment apparatus comprising: a cabinet defining an external appearance of the laundry treatment apparatus; a drum rotatably provided inside the cabinet to accommodate laundry; and a door assembly pivotably provided at the cabinet to open or close an opening in the drum, wherein the door assembly includes: a door body (131, 133) configured to open or close the cabinet and including an inner body to open or close the cabinet and an outer body provided on the front surface of the inner body; a control panel detachably attached on an inner surface of the outer body to receive an input related to operation from a user and to display operation of the laundry treatment apparatus; and a control panel cover separably provided on a rear surface of the control panel to define a rear surface of the door assembly, wherein the control panel includes: an input unit configured to receive the input related to operation from the user; a display unit configured to display the input received from the input unit; and a printed circuit board PCB configured to control the control panel; wherein the control panel cover has at least one through-hole therein; wherein the control panel and the control panel cover are separably coupled to each other using a fastening member that penetrates the through-hole, and wherein the input unit includes a knob rotatably protruding from the control panel so as to receive the input from the user and the display unit includes an LED configured to display an operating state of the laundry treatment apparatus, and wherein the outer body includes: a knob penetration hole which enables the penetration of the knob; and a LED penetration hole which enables the penetration of the LED. a cabinet defining an external appearance of the laundry treatment apparatus; a drum rotatably provided inside the cabinet to accommodate laundry; and a door assembly pivotably provided at the cabinet to open or close an opening in the drum, a door body (131, 133) configured to open or close the cabinet and including an inner body to open or close the cabinet and an outer body provided on the front surface of the inner body; a control panel detachably attached on an inner surface of the outer body to receive an input related to operation from a user and to display operation of the laundry treatment apparatus; and a control panel cover separably provided on a rear surface of the control panel to define a rear surface of the door assembly, an input unit configured to receive the input related to operation from the user; a display unit configured to display the input received from the input unit; and a printed circuit board PCB configured to control the control panel; a knob penetration hole which enables the penetration of the knob; and a LED penetration hole which enables the penetration of the LED.
An antiperspirant cosmetic agent for non-aerosol use, containing in a cosmetically acceptable carrier a) at least one antiperspirant aluminum salt in a total amount of from 2 to 40 wt.%, preferably from 8 to 35 wt.%, particularly preferably from 10 to 28 wt.%, and extremely preferably from 12 to 20 wt.%, the wt.% being based on the total weight of the active substance in the agent, which active substance is free of crystallization water and ligands, and additionally b) at least one hydroxycarboxylic acid of the formula (HCS-1) HOOC-(CHOH)n-CHOH-R (HCS-1) where n denotes an integer in the range of from 1 to 10 and the substituent R is selected from -H and -COOH, the hydroxycarboxylic acid being present in free form, as a sodium salt or potassium salt or as a lactone, and the total amount of hydroxycarboxylic acid(s) of the formula (HCS-1), optionally in salt and/or lactone form, being from 0.3 to 5 wt.%, preferably from 0.5 to 3 wt.%, particularly preferably from 1 to 2.5 wt.%, the wt.% being based in each case on the total weight of the agent, characterized in that the at least one hydroxycarboxylic acid of the formula (HCS-1) is not a component of the antiperspirant aluminum salt. a) at least one antiperspirant aluminum salt in a total amount of from 2 to 40 wt.%, preferably from 8 to 35 wt.%, particularly preferably from 10 to 28 wt.%, and extremely preferably from 12 to 20 wt.%, the wt.% being based on the total weight of the active substance in the agent, which active substance is free of crystallization water and ligands, and additionally b) at least one hydroxycarboxylic acid of the formula (HCS-1) HOOC-(CHOH)n-CHOH-R (HCS-1) where n denotes an integer in the range of from 1 to 10 and the substituent R is selected from -H and -COOH, the hydroxycarboxylic acid being present in free form, as a sodium salt or potassium salt or as a lactone, and the total amount of hydroxycarboxylic acid(s) of the formula (HCS-1), optionally in salt and/or lactone form, being from 0.3 to 5 wt.%, preferably from 0.5 to 3 wt.%, particularly preferably from 1 to 2.5 wt.%,
A magnetic antenna for transmitting and receiving a magnetic field component, comprising in this order: an insulating layer, a coil, an insulating layer, a conductive layer and a magnetic layer, wherein said coil comprises a magnetic layer and an electrode material formed in a spiral configuration around said magnetic layer, wherein said insulating layers comprise a Zn based ferrite or a glass based ceramic, and wherein said magnetic layers comprise a Ni-Zn based ferrite magnetic material produced by calcination in which the ferrite powder has a composition of 45 to 49.5 mol% of Fe 2 O 3, 9.0 to 45.0 mol% of NiO, 0.5 to 35.0 mol% of ZnO and 4.5 to 15.0 mol% of CuO. an insulating layer, a coil, an insulating layer, a conductive layer and a magnetic layer, wherein said coil comprises a magnetic layer and an electrode material formed in a spiral configuration around said magnetic layer, wherein said insulating layers comprise a Zn based ferrite or a glass based ceramic, and wherein said magnetic layers comprise a Ni-Zn based ferrite magnetic material produced by calcination in which the ferrite powder has a composition of 45 to 49.5 mol% of Fe 2 O 3, 9.0 to 45.0 mol% of NiO, 0.5 to 35.0 mol% of ZnO and 4.5 to 15.0 mol% of CuO.
A method for removing residual pigment particles of a tattoo formed as a result of a tattoo removal procedure from a target region of the skin of a patient, comprising: defining an irrigation area in or around the target region, wherein the irrigation area comprises the residual pigment particles of the tattoo; injecting an irrigation fluid into the irrigation area; suspending at least a portion of the residual pigment particles in the irrigation fluid; and removing the irrigation fluid from the irrigation area via at least one channel through a surface of the skin of the patient, wherein the at least the portion of the residual pigment particles suspended in the irrigation fluid are removed with the irrigation fluid. defining an irrigation area in or around the target region, wherein the irrigation area comprises the residual pigment particles of the tattoo; injecting an irrigation fluid into the irrigation area; suspending at least a portion of the residual pigment particles in the irrigation fluid; and removing the irrigation fluid from the irrigation area via at least one channel through a surface of the skin of the patient, wherein the at least the portion of the residual pigment particles suspended in the irrigation fluid are removed with the irrigation fluid.
A printer, comprising: a forming device configured to form a solid or semisolid toner film on a print substrate by applying a film of liquid toner to a heated transfer member, wherein the heated transfer member heats the liquid toner to evaporate liquid carrier of the liquid toner so the toner dries to a solid or semisolid, and transferring the toner film from the heated transfer member to the print substrate; and a fixer configured to, without contacting the toner film, soften the toner film on the print substrate until polymers in the toner are mobile enough to allow polymer functional groups to bond with the print substrate by applying a heat flux of 20kW/m 2 - 400 kW/m 2 to the toner film on the print substrate. a forming device configured to form a solid or semisolid toner film on a print substrate by applying a film of liquid toner to a heated transfer member, wherein the heated transfer member heats the liquid toner to evaporate liquid carrier of the liquid toner so the toner dries to a solid or semisolid, and transferring the toner film from the heated transfer member to the print substrate; and a fixer configured to, without contacting the toner film, soften the toner film on the print substrate until polymers in the toner are mobile enough to allow polymer functional groups to bond with the print substrate by applying a heat flux of 20kW/m 2 - 400 kW/m 2 to the toner film on the print substrate.
A supporting device or landing gear for a semi-trailer or the like, comprising a supporting tube and a supporting foot arranged on the supporting tube, wherein the supporting foot comprises a compensation element arranged on the supporting tube and a contact plate having a support portion for the compensation element, wherein there is provided at least one covering device (150a; 150b) arranged on the supporting device, which at least partially covers or overlaps the compensation element and/or the support portion of the contact plate. wherein the compensation element is pivotably attached at the supporting tube via a swivel joint, and wherein the covering device (150a; 150b) at least partially covers or overlaps this swivel joint as well, and wherein the covering device (150a; 150b) is attached at the supporting tube and at the contact plate.