mhurhangee/ep-ind-claims huggingface dataset:
A heat resistor type air flow rate measuring device comprising an auxiliary passage taking in a part of fluid flowing in a main passage and a plate-shaped sensor element for detecting a flow rate of the fluid being installed in the auxiliary passage, wherein - the auxiliary passage is provided with an auxiliary passage inlet port and an auxiliary passage outlet port disposed in an intake pipe forming said main passage, - the plate-shaped sensor element having a sensor formation surface, on which a resistor pattern is formed; the plate-shaped sensor element being mounted in a recess of a board provided in the auxiliary passage, wherein the board having the sensor formation surface of the plate-shaped sensor element is arranged so as to intersect a phantom plane substantially perpendicularly, wherein the phantom plane is located parallel to the flow direction in the intake pipe and the auxiliary passage is arranged along the phantom plane; characterized in that the auxiliary passage has the shape of a curved line from the inlet port to the plate-shaped sensor element, the curved line being a curve bending 90° or more along the phantom plane upstream of the plate-shaped sensor element; the inner peripheral side of the curve of the auxiliary passage is the inner peripheral wall surface side and the outer peripheral side of the curve of the auxiliary passage is the outer peripheral wall surface side; the sensor formation surface and the rear side of the board opposite to the sensor formation surface form gaps with the inner surface of the auxiliary passage; the sensor formation surface of the sensor element faces the outer peripheral side of the curve of the auxiliary passage and therefore the outer peripheral wall surface; and a projection in a wedge shape is provided on the outer peripheral side wall surface of the auxiliary passage facing the sensor formation surface of the plate-shaped sensor element. - the auxiliary passage is provided with an auxiliary passage inlet port and an auxiliary passage outlet port disposed in an intake pipe forming said main passage, - the plate-shaped sensor element having a sensor formation surface, on which a resistor pattern is formed; the plate-shaped sensor element being mounted in a recess of a board provided in the auxiliary passage, wherein the board having the sensor formation surface of the plate-shaped sensor element is arranged so as to intersect a phantom plane substantially perpendicularly, wherein the phantom plane is located parallel to the flow direction in the intake pipe and the auxiliary passage is arranged along the phantom plane;
A method of reserving a resource via a portable communication device, the method comprising: wirelessly transmitting a reservation request to a resource communicator via a near field communication, NFC, touch between the portable communication device and the resource communicator while the portable communication device is within proximity to the resource communicator for NFC protocol operation, the reservation request adding the user of the portable communication device to a queue to use the resource on a first-come-first-serve basis; wirelessly receiving a resource availability alert from the resource indicating that the resource is currently available for use by the user of the portable communication device; and wirelessly transmitting, via an NFC touch, a resource use message to the resource communicator to communicate to the resource that the resource is currently in use by the user of the portable communication device. wirelessly transmitting a reservation request to a resource communicator via a near field communication, NFC, touch between the portable communication device and the resource communicator while the portable communication device is within proximity to the resource communicator for NFC protocol operation, the reservation request adding the user of the portable communication device to a queue to use the resource on a first-come-first-serve basis; wirelessly receiving a resource availability alert from the resource indicating that the resource is currently available for use by the user of the portable communication device; and wirelessly transmitting, via an NFC touch, a resource use message to the resource communicator to communicate to the resource that the resource is currently in use by the user of the portable communication device.
A washing machine, comprising a washing chamber for receiving a washing liquid and textiles to be cleaned, and comprising a discoloration reservoir which has an inlet for conveying washing liquid out of the washing chamber into the discoloration reservoir and has an outlet for conveying washing liquid out of the discoloration reservoir into the washing chamber, both the inlet and the outlet being designed in such a way that textiles cannot enter the discoloration reservoir, characterized in that the discoloration reservoir further has at least one activation means which is suitable for initiating a process within the discoloration reservoir for forming free radicals in the washing liquid, it being possible for dyes contained in the washing liquid to be decomposed by the free radicals, and the activation means having an electrode arrangement comprising an anode and a cathode.
Seismic source (800, 900) configured to generate acoustic waves, the seismic source comprising: a housing (802, 902) having a firing chamber (804, 904); a movable shuttle (822, 922) located inside the housing (802, 902) and configured to move between a closed position and an open position along a longitudinal axis of the housing (802, 902); at least one exhaust port (810, 910) configured to release the compressed gas into the ambient while the movable shuttle (822, 922) moves toward the open position; and wherein the movable shuttle (822, 922) has a transitional region (822D, 922D) that defines, with the firing chamber (804, 904) and when the movable shuttle (822, 922) moves from the closed position to the open one, a most restrictive area (880, 980) through which the compressed gas is released toward the at least one exhaust port (810, 910), wherein the transitional region (822D, 922D) is located inside the firing chamber when the movable shuttle is in the closed position, and wherein the area of the most restrictive area (880, 890) versus time, has a continuous first derivative along the length of the transitional region while the movable shuttle (822, 922) moves toward the open position, characterized in that the transitional region is selected to have a convex shape. a housing (802, 902) having a firing chamber (804, 904); a movable shuttle (822, 922) located inside the housing (802, 902) and configured to move between a closed position and an open position along a longitudinal axis of the housing (802, 902); at least one exhaust port (810, 910) configured to release the compressed gas into the ambient while the movable shuttle (822, 922) moves toward the open position; and wherein the movable shuttle (822, 922) has a transitional region (822D, 922D) that defines, with the firing chamber (804, 904) and when the movable shuttle (822, 922) moves from the closed position to the open one, a most restrictive area (880, 980) through which the compressed gas is released toward the at least one exhaust port (810, 910), wherein the transitional region (822D, 922D) is located inside the firing chamber when the movable shuttle is in the closed position, and wherein the area of the most restrictive area (880, 890) versus time, has a continuous first derivative along the length of the transitional region while the movable shuttle (822, 922) moves toward the open position, characterized in that the transitional region is selected to have a convex shape.
A divalent imidic acid compound, which is represented by the following general formula or: wherein in formulae and, R 1 to R 3 each independently represent a fluorine atom or an organic group selected from a linear or branched C1-10 alkoxy group, a C2-10 alkenyloxy group, a C2-10 alkynyloxy group, a C3-10 cycloalkoxy group, a C3-10 cycloalkenyloxy group and a C6-10 aryloxy group, wherein a fluorine atom, an oxygen atom or an unsaturated bond may also be present in the organic group; and wherein M 1 and M 2 each independently represent a proton, a metal cation or an onium cation.
A sanitary napkin comprising an absorbent material, wherein said absorbent material is an airlaid material made from cellulosic fibers, bonding materials and nonbonding materials, said absorbent material having less than 50% cellulosic fibers, less than 20 % bonding material, greater than 30% nonbonding materials, and characterised in that said sanitary napkin has a thickness of less than 1.5 mm; wherein said airlaid material has a basis weight in the range of 50 gsm to 600 gsm and a density in the range of 0.03 g/cc to 0.2 g/cc.
Method for foaming in-situ of a top material comprising the method steps of - providing a reactive foam material in the form of a liquid as foam layer with an initial height (h 0), - - at least partially foaming the foam material, - limiting a height expansion of the foam layer during partial foaming up to a first height (h 1), wherein h 1 > h 0, - wetting and impregnating an upper contact surface of the foam layer with a reaction aid, - arranging the top material on the contact surface of the foam layer, characterised in that the method further comprises the following method step: - bonding the at least partially foamed foam layer on the contact surface with the top material to form a composite material by means of a second height limit (7; 7a). - providing a reactive foam material in the form of a liquid as foam layer with an initial height (h 0), - - at least partially foaming the foam material, - limiting a height expansion of the foam layer during partial foaming up to a first height (h 1), wherein h 1 > h 0, - wetting and impregnating an upper contact surface of the foam layer with a reaction aid, - arranging the top material on the contact surface of the foam layer, - bonding the at least partially foamed foam layer on the contact surface with the top material to form a composite material by means of a second height limit (7; 7a).
An aerosol generation device, comprising: - a bracket extending along a device axis and configured to receive and support a plurality of internal components of the device; - an outside casing delimiting an interior part of the device configured to receive the bracket and defining an atomizer compartment and a power block compartment; - a pressure capture assembly comprising a pressure sensor and a flexible housing configured to receive and support the pressure sensor; wherein the pressure capture assembly is designed to be arranged on the bracket between the power block compartment and the atomizer compartment to prevent air passage between these compartments (14, 15); the aerosol generation device being characterized in that the pressure capture assembly further comprises a holder configured to fix the flexible housing with the pressure sensor on the bracket so as the flexible housing is in contact with the bracket. - a bracket extending along a device axis and configured to receive and support a plurality of internal components of the device; - an outside casing delimiting an interior part of the device configured to receive the bracket and defining an atomizer compartment and a power block compartment; - a pressure capture assembly comprising a pressure sensor and a flexible housing configured to receive and support the pressure sensor; wherein the pressure capture assembly is designed to be arranged on the bracket between the power block compartment and the atomizer compartment to prevent air passage between these compartments (14, 15); the aerosol generation device being characterized in that the pressure capture assembly further comprises a holder configured to fix the flexible housing with the pressure sensor on the bracket so as the flexible housing is in contact with the bracket.
A communication method in dual connection mode, comprising: determining, by a first Third Generation Partnership Project, 3GPP, access device, whether a 3GPP handover needs to be performed for user equipment, UE, wherein the 3GPP handover is a handover from the first 3GPP access device to a second 3GPP access device; sending, by the first 3GPP access device, connection information between the UE and a third access device to the second 3GPP access device when the first 3GPP access device determines that the 3GPP handover needs to be performed for the UE, wherein the connection information is configured for being used to control service transmission of the UE in the third access device by the second 3GPP access device, wherein the first 3GPP access device and the third access device are devices that the UE is currently connected to, characterized in that: the third access device is a device in a wireless local area network, WLAN, and the connection information comprises security configuration-related information of the third access device. determining, by a first Third Generation Partnership Project, 3GPP, access device, whether a 3GPP handover needs to be performed for user equipment, UE, wherein the 3GPP handover is a handover from the first 3GPP access device to a second 3GPP access device; sending, by the first 3GPP access device, connection information between the UE and a third access device to the second 3GPP access device when the first 3GPP access device determines that the 3GPP handover needs to be performed for the UE, wherein the connection information is configured for being used to control service transmission of the UE in the third access device by the second 3GPP access device, wherein the first 3GPP access device and the third access device are devices that the UE is currently connected to, characterized in that: the third access device is a device in a wireless local area network, WLAN, and the connection information comprises security configuration-related information of the third access device.
A method of grinding an ingot for use in manufacturing semiconductor or solar wafers, the method comprising: providing an ingot including four flat sides and four corner portions, each corner portion extending between an adjacent pair of the flat sides; and grinding a plurality of planar facets on each corner portion, each planar facet of the corner portion joined to an adjacent facet at a juncture and oriented such that each corner portion has a substantially arcuate shape. providing an ingot including four flat sides and four corner portions, each corner portion extending between an adjacent pair of the flat sides; and grinding a plurality of planar facets on each corner portion, each planar facet of the corner portion joined to an adjacent facet at a juncture and oriented such that each corner portion has a substantially arcuate shape.
An apparatus for removing an adhesive layer, from a wafer surface, comprising: a chuck configured to support and hold a wafer, wherein said wafer comprises an adhesive layer on its top surface; a contact roller comprising an elongated cylindrical body extending along a first axis passing through its center and being configured to rotate around said first axis and to move linearly along a direction perpendicular to said first axis over said chuck and said supported wafer; a pick-up roller comprising an elongated cylindrical body extending along a second axis passing through its center and being configured to rotate around said second axis and wherein said second axis is parallel to said first axis and said pick-up roller is arranged at a first distance from the contact roller; a detaping tape (155, 315) configured to roll around said contact roller and said pick-up roller, and wherein said detaping tape (155, 315) is configured to attach to said adhesive layer and then to be removed together with the adhesive layer; characterized in that said contact roller comprises a 360° circular surface layer rolled around and attached to its outer cylindrical surface; and wherein said contact roller further comprises means for attaching said detaping tape (155, 315) onto said adhesive layer by rotating clock-wise around its axis and linearly moving along a first direction over said wafer and contacting said adhesive layer with said 360° circular surface layer. a chuck configured to support and hold a wafer, wherein said wafer comprises an adhesive layer on its top surface; a contact roller comprising an elongated cylindrical body extending along a first axis passing through its center and being configured to rotate around said first axis and to move linearly along a direction perpendicular to said first axis over said chuck and said supported wafer; a pick-up roller comprising an elongated cylindrical body extending along a second axis passing through its center and being configured to rotate around said second axis and wherein said second axis is parallel to said first axis and said pick-up roller is arranged at a first distance from the contact roller; a detaping tape (155, 315) configured to roll around said contact roller and said pick-up roller, and wherein said detaping tape (155, 315) is configured to attach to said adhesive layer and then to be removed together with the adhesive layer; characterized in that said contact roller comprises a 360° circular surface layer rolled around and attached to its outer cylindrical surface; and wherein said contact roller further comprises means for attaching said detaping tape (155, 315) onto said adhesive layer by rotating clock-wise around its axis and linearly moving along a first direction over said wafer and contacting said adhesive layer with said 360° circular surface layer.
A method for operating a sensor data collection system for collecting data from a plurality of endpoint devices, the method comprising: receiving, at a central data collection point, sensor data generated at each of the plurality of endpoint devices, the sensor data representing a series of actual measured values; maintaining, at the central data collection point, a database containing records corresponding to the individual endpoint devices and including historic values of sensor data for those endpoint devices; computing, at the central data collection point, predicted values representing presumed sensor data for at least one endpoint device, wherein the predicted values are computed based on the historic values of sensor data corresponding to the at least one endpoint device; receiving, at the central data collection point, exception data generated by the at least one endpoint device, the exception data representing a discrepancy between at least one of the predicted values and a corresponding at least one actual measured sensor data value; and in response to receiving the exception data, superseding, at the central data collection point, the at least one of the predicted values based on the exception data. receiving, at a central data collection point, sensor data generated at each of the plurality of endpoint devices, the sensor data representing a series of actual measured values; maintaining, at the central data collection point, a database containing records corresponding to the individual endpoint devices and including historic values of sensor data for those endpoint devices; computing, at the central data collection point, predicted values representing presumed sensor data for at least one endpoint device, wherein the predicted values are computed based on the historic values of sensor data corresponding to the at least one endpoint device; receiving, at the central data collection point, exception data generated by the at least one endpoint device, the exception data representing a discrepancy between at least one of the predicted values and a corresponding at least one actual measured sensor data value; and in response to receiving the exception data, superseding, at the central data collection point, the at least one of the predicted values based on the exception data.
A camera module comprising: a housing including a first housing and a second housing disposed under the first housing in a vertical direction; and a lens barrel disposed in the first housing, the vertical direction being parallel to an optical axis of the lens barrel; characterized by an elastic member connecting the housing and the lens barrel, and including an outer frame connected to the housing, an inner frame connected to the lens barrel, and an elastic part connected the inner frame and the outer frame, a driving unit including a first driving module (173, 177) and a second driving module (175, 177), the first driving module (173, 177) disposed between the first housing and the lens barrel and including a first coil means and a magnet means, the second driving module (175, 177) including a second coil means disposed between the second housing and the magnet means, wherein the inner frame have a circular shape, wherein the outer frame have a polygonal shape, wherein the elastic part include a first elastic part and a second elastic part bent from the first elastic part. a housing including a first housing and a second housing disposed under the first housing in a vertical direction; and a lens barrel disposed in the first housing, the vertical direction being parallel to an optical axis of the lens barrel; characterized by an elastic member connecting the housing and the lens barrel, and including an outer frame connected to the housing, an inner frame connected to the lens barrel, and an elastic part connected the inner frame and the outer frame, a driving unit including a first driving module (173, 177) and a second driving module (175, 177), the first driving module (173, 177) disposed between the first housing and the lens barrel and including a first coil means and a magnet means, the second driving module (175, 177) including a second coil means disposed between the second housing and the magnet means, wherein the inner frame have a circular shape, wherein the outer frame have a polygonal shape, wherein the elastic part include a first elastic part and a second elastic part bent from the first elastic part.
A vacuum cleaner to collect dust, the vacuum cleaner comprising: a cyclone dust collector, the cyclone dust collector comprising: a case including a bottom and an upper part; a first cover couplable to the case, the first cover configured to selectively open and close the bottom of the case; and a grill assembly configured to be selectively detachable from the cyclone dust collector, so that the collected dust is removed from the grill assembly as the grill assembly detaches from the cyclone dust collector, and when the grill assembly is rotated in one direction, the first cover is opened and the grill assembly is pulled out of the upper part of the case to be detached from the upper part of the case. a case including a bottom and an upper part; a first cover couplable to the case, the first cover configured to selectively open and close the bottom of the case; and a grill assembly configured to be selectively detachable from the cyclone dust collector, so that the collected dust is removed from the grill assembly as the grill assembly detaches from the cyclone dust collector, and when the grill assembly is rotated in one direction, the first cover is opened and the grill assembly is pulled out of the upper part of the case to be detached from the upper part of the case.