mhurhangee/ep-ind-claims huggingface dataset:
Stench trap (1; 20; 30; 60; 132, 134), comprising: - a housing (5; 21; 31; 61; 132) with an inflow opening (6; 22; 32; 62) and an outflow opening (9; 23; 33; 63; 133) lying in a lower position during use; - a downward directed wall (7; 25; 34; 64; 134; 140) arranged in the housing (5; 21; 31; 61; 132) and having a passage opening (8; 26; 35; 136; 66; 142) close to the underside, wherein a channel is formed from the inflow opening (6; 22; 32; 62) via the passage opening (8; 26; 35; 136; 66; 142) to the outflow opening (9; 23; 33; 63; 133) by the housing (5; 21; 31; 61; 132) and the downward directed wall (7; 25; 34; 64; 134; 140); characterized by a flexible unidirectional seal (11; 27, 28; 36; 67; 137; 143, 144, 145, 146) arranged in the channel, which seal (11; 27, 28; 36; 67; 137; 143, 144, 145, 146) extends between the housing (5; 21; 31; 61; 132) and the downward directed wall (7; 25; 34; 64; 134; 140) close to and in flow direction beyond the passage opening (8; 26; 35; 136; 66; 142) to close off the channel,wherein the flexible unidirectional seal comprises a first flexible flap (11; 27, 28; 36; 67; 137; 143, 144, 145, 146) arranged on a wall part of the channel, wherein a part of the flexible flap (11; 27, 28; 36; 67; 137; 143, 144, 145, 146) lies in a lower position than the outflow opening (9; 23; 33; 63; 133). - a housing (5; 21; 31; 61; 132) with an inflow opening (6; 22; 32; 62) and an outflow opening (9; 23; 33; 63; 133) lying in a lower position during use; - a downward directed wall (7; 25; 34; 64; 134; 140) arranged in the housing (5; 21; 31; 61; 132) and having a passage opening (8; 26; 35; 136; 66; 142) close to the underside, wherein a channel is formed from the inflow opening (6; 22; 32; 62) via the passage opening (8; 26; 35; 136; 66; 142) to the outflow opening (9; 23; 33; 63; 133) by the housing (5; 21; 31; 61; 132) and the downward directed wall (7; 25; 34; 64; 134; 140);
A wind turbine blade configured to be mounted to a hub of a wind turbine, comprising: a plurality of shell core sections coupled together end-to-end to collectively define a span length of the blade between a root end and a tip, wherein each of the shell core sections defines a sidewall forming a tubular structure and defining an external surface, and the sidewall including a plurality of external grooves recessed into the external surface and which grooves extend along the entire length of the shell core section; a plurality of strengthening elements positioned to extend within the plurality of external grooves and along the span length, the strengthening elements configured to reinforce the blade under bending loads during use of the wind turbine; and an outer surface material layer that covers the external surface and the plurality of strengthening elements, the outer surface material layer defining an external profile of the blade, wherein the plurality of strengthening elements, and the outer surface material layer are consolidated together by curing of the outer surface material layer. a plurality of shell core sections coupled together end-to-end to collectively define a span length of the blade between a root end and a tip, wherein each of the shell core sections defines a sidewall forming a tubular structure and defining an external surface, and the sidewall including a plurality of external grooves recessed into the external surface and which grooves extend along the entire length of the shell core section; a plurality of strengthening elements positioned to extend within the plurality of external grooves and along the span length, the strengthening elements configured to reinforce the blade under bending loads during use of the wind turbine; and an outer surface material layer that covers the external surface and the plurality of strengthening elements, the outer surface material layer defining an external profile of the blade, wherein the plurality of strengthening elements, and the outer surface material layer are consolidated together by curing of the outer surface material layer.
A lens driving device comprising: a cover member comprising an upper plate and a lateral plate extending from the upper plate; a bobbin disposed in the cover member; a housing disposed between the cover member and the bobbin; a coil disposed on the bobbin; a driving magnet disposed between the coil and the lateral plate of the cover member; a sensing magnet disposed on the bobbin; a substrate; and a sensor disposed on the substrate and configured to sense the sensing magnet, wherein at least a portion of the substrate is disposed between the housing and the lateral plate of the cover member, wherein an upper surface of the sensor is fixed to the housing, characterized in that the substrate comprises a body part disposed outside the housing, and an extension part bent from the body part, and that the sensor is disposed on the extension part. a cover member comprising an upper plate and a lateral plate extending from the upper plate; a bobbin disposed in the cover member; a housing disposed between the cover member and the bobbin; a coil disposed on the bobbin; a driving magnet disposed between the coil and the lateral plate of the cover member; a sensing magnet disposed on the bobbin; a substrate; and a sensor disposed on the substrate and configured to sense the sensing magnet, wherein at least a portion of the substrate is disposed between the housing and the lateral plate of the cover member, wherein an upper surface of the sensor is fixed to the housing, characterized in that the substrate comprises a body part disposed outside the housing, and an extension part bent from the body part, and that the sensor is disposed on the extension part.
Fluid pump with an electric drive, in particular a fluid pump for a cooling circuit and/or heating circuit of a motor vehicle, with a stator, with a shaft which is connected to a pump housing, and with a rotor which is arranged on the shaft, said rotor having an impeller and being mounted on the shaft by means of a radially acting first bearing, wherein the shaft, the stator and the rotor are arranged in the pump housing and the shaft has an encircling groove at a free end, wherein a deformable blocking element is arranged in the groove and an axially acting second bearing for the rotor is arranged between the blocking element and the rotor, and wherein the second bearing is configured to introduce an axially acting force generated by the rotor into the shaft via the deformable blocking element; characterized in that the second bearing has an aperture for receiving the rotationally fixed shaft, and, over its extent along the axial direction of the shaft, the aperture has opening cross sections of different sizes; wherein the opening cross sections of the aperture decrease in size as the distance from the free end increases; wherein, owing to the differently sized opening cross sections of the aperture, a force acting in a radial direction with respect to the shaft from the second bearing to the deformable blocking element is able to be exerted.
A method for access control in an access control system for people or vehicles comprising at least one access control device, each access control device having at least one antenna (2, 3, 4) in each case, the checking of access authorization taking place on the basis of the evaluation of at least one beacon, which is sent from a data carrier by means of a first standard for wireless communication in an advertising mode at regular intervals to an access control device, which beacon contains an ID, to which at least one access authorization is uniquely assigned, and a unique identifier of the data carrier, characterized in that the beacons additionally in each case contain a unique beacon ID for the respective data carrier sending the beacon, wherein due to the combination of the unique identifier of the data carrier and the beacon ID, which is unique for the data carrier, unique identification of every beacon transmitted by each data carrier is enabled, wherein the identification and localization of the data carriers is carried out at the at least one antenna of an access control device by means of an evaluation of the RSSIs of the beacons sent from the data carriers, wherein due to the unique identification of every beacon transmitted from each data carrier by means of the combination of the unique identifier of the data carrier and the beacon ID, which is unique for the data carrier, it is ensured that the RSSI values of the same beacon of a data carrier are called upon in each case in the context of the RSSI evaluation, wherein due to the RSSI evaluation, the data carrier closest to an access control device in the access direction is determined and the ID sent from this data carrier, to which at least one access authorization is uniquely assigned, is evaluated in order to grant access in the case of valid access authorization, and in that the unique beacon ID is generated by means of an algorithm which is also stored in the receiving access control devices or in the access control system and is called upon for evaluating the beacon IDs, wherein the temporal sequence of the values of the beacon IDs of the beacons sent from a data carrier is determined according to a predetermined pattern or according to a predetermined function.
A system for automated platelet washing comprising: a sterile connection for connecting a platelet product container to the system, and withdrawing platelet product from the platelet product container; a centrifuge bowl for separating the platelet product into platelets and a supernatant, the centrifuge bowl configured to send the supernatant to a waste container; a wash solution source fluidly connected to the centrifuge bowl and configured to send wash solution to the centrifuge bowl; a platelet additive solution source fluidly connected to the centrifuge bowl and configured to send platelet additive solution to the centrifuge bowl; and a controller for controlling the operation of the centrifuge bowl, the controller being configured to accelerate and decelerate the centrifuge bowl multiple times to resuspend the platelets within the platelet additive solution after the platelet additive solution is added to the platelets and the supernatant is sent to the waste container. a sterile connection for connecting a platelet product container to the system, and withdrawing platelet product from the platelet product container; a centrifuge bowl for separating the platelet product into platelets and a supernatant, the centrifuge bowl configured to send the supernatant to a waste container; a wash solution source fluidly connected to the centrifuge bowl and configured to send wash solution to the centrifuge bowl; a platelet additive solution source fluidly connected to the centrifuge bowl and configured to send platelet additive solution to the centrifuge bowl; and a controller for controlling the operation of the centrifuge bowl, the controller being configured to accelerate and decelerate the centrifuge bowl multiple times to resuspend the platelets within the platelet additive solution after the platelet additive solution is added to the platelets and the supernatant is sent to the waste container.
A supercritical carbon dioxide-assisted solid-phase grafting modification method for polypropylene, comprising: swelling polypropylene in supercritical carbon dioxide with dissolved vinyl monomer and an initiator for 0.5 to 10 hours, then slowly relieving the pressure; moving the polypropylene that has undergone the swelling process into a reaction kettle, and adding xylene as an interface agent with the mass ratio of xylene to the polypropylene being 1%, increasing the temperature up to between 65°C and 165°C under normal pressure, and reacting for 1 to 10 hours to obtain objective product; the swelling permeation temperature during the swelling process being from 31°C to 60°C, and the swelling pressure being from 7.5 to 12 MPa; the initiator being azo compound or peroxide, which accounts for 0.1-5.0% by mass of the polypropylene; said vinyl monomer accounting for 0.2-20% by mass of the polypropylene. swelling polypropylene in supercritical carbon dioxide with dissolved vinyl monomer and an initiator for 0.5 to 10 hours, then slowly relieving the pressure; moving the polypropylene that has undergone the swelling process into a reaction kettle, and adding xylene as an interface agent with the mass ratio of xylene to the polypropylene being 1%, increasing the temperature up to between 65°C and 165°C under normal pressure, and reacting for 1 to 10 hours to obtain objective product; the swelling permeation temperature during the swelling process being from 31°C to 60°C, and the swelling pressure being from 7.5 to 12 MPa; the initiator being azo compound or peroxide, which accounts for 0.1-5.0% by mass of the polypropylene; said vinyl monomer accounting for 0.2-20% by mass of the polypropylene.
Terminal device wherein the terminal device is a device-to-device, D2D, device, the terminal device belongs to multiple communications groups, each communications group is corresponding to multiple logical channel groups, and the terminal device comprises: a processing unit, configured to determine identification information of at least two currently-enabled communications groups, wherein a buffer of the terminal device contains to-be-transmitted data that waits to be sent to the currently-enabled communications groups at the same time; and configured to generate information about an amount of the to-be-transmitted data, wherein the information about the amount of the to-be-transmitted data comprises the identification information of each of the currently-enabled communications groups, and buffer status reports of logical channel groups corresponding to the currently-enabled communications groups, and the amount of the to-be-transmitted data is an amount of data to be transmitted between the terminal device and other D2D devices in the currently-enabled communications groups; a sending unit, configured to send the information about the amount of the to-be-transmitted data to a base station; and a receiving unit, configured to receive information that is about a resource and sent by the base station, wherein the resource is allocated by the base station for the currently-enabled communications groups, and the information about the resource comprises the identification information of the currently-enabled communications groups, wherein the sending unit is further configured to transmit data in the currently-enabled communications groups by using the resource. a processing unit, configured to determine identification information of at least two currently-enabled communications groups, wherein a buffer of the terminal device contains to-be-transmitted data that waits to be sent to the currently-enabled communications groups at the same time; and configured to generate information about an amount of the to-be-transmitted data, wherein the information about the amount of the to-be-transmitted data comprises the identification information of each of the currently-enabled communications groups, and buffer status reports of logical channel groups corresponding to the currently-enabled communications groups, and the amount of the to-be-transmitted data is an amount of data to be transmitted between the terminal device and other D2D devices in the currently-enabled communications groups; a sending unit, configured to send the information about the amount of the to-be-transmitted data to a base station; and a receiving unit, configured to receive information that is about a resource and sent by the base station, wherein the resource is allocated by the base station for the currently-enabled communications groups, and the information about the resource comprises the identification information of the currently-enabled communications groups, wherein the sending unit is further configured to transmit data in the currently-enabled communications groups by using the resource.
A lighting device comprising: a light emitting module having a plurality of light emitting devices outputting light and a light emitting device board on which the light emitting devices are disposed in an annular arrangement on one surface of the light emitting device board; a first heat sink installed on one side of the light emitting module along a central axis direction relatively to the light emitting device board; a second heat sink installed on the other side of the light emitting module along a central axis direction relatively to the light emitting device board and having a hollow shape; and a reflector maintained in one surface of the light emitting device board and reflecting light output from the light emitting devices a globe installed to cover the light emitting module and the reflector; and a driving circuit installed within the second heat sink and driving the light emitting devices, wherein the first heat sink and the second heat sink respectively dissipate at least one of heat generated by the light emitting module and heat generated by the driving circuit, wherein the first heat sink has a substantially cylindrical or columnar shape, and the globe has an opening connected to one end of the first heat sink and wherein the reflector has a hollow shape, the first heat sink is disposed in the hollow portion of the reflector, and a maximum diameter of the first heat sink is equal to or smaller than a maximum diameter of the reflector. a light emitting module having a plurality of light emitting devices outputting light and a light emitting device board on which the light emitting devices are disposed in an annular arrangement on one surface of the light emitting device board; a first heat sink installed on one side of the light emitting module along a central axis direction relatively to the light emitting device board; a second heat sink installed on the other side of the light emitting module along a central axis direction relatively to the light emitting device board and having a hollow shape; and a reflector maintained in one surface of the light emitting device board and reflecting light output from the light emitting devices a globe installed to cover the light emitting module and the reflector; and a driving circuit installed within the second heat sink and driving the light emitting devices, wherein the first heat sink and the second heat sink respectively dissipate at least one of heat generated by the light emitting module and heat generated by the driving circuit, wherein the first heat sink has a substantially cylindrical or columnar shape, and the globe has an opening connected to one end of the first heat sink and wherein the reflector has a hollow shape, the first heat sink is disposed in the hollow portion of the reflector, and a maximum diameter of the first heat sink is equal to or smaller than a maximum diameter of the reflector.
An infrared sensor comprising: an infrared sensor element, which is a semiconductor package comprising a sensor chip (1a, 1b); an optical filter (30a, 30b) which faces a light reception surface (2a, 2b) of the sensor chip (1a, 1b) and is placed in order to cover the light reception surface (2a, 2b) of the sensor chip (1a, 1b); and a holder holding the infrared sensor element and the optical filter; and an adhesive for bonding the infrared sensor element and the holder, wherein the holder includes a recessed optical filter accommodation part (21a, 21b) for accommodating the optical filter, provided on a facing surface of the holder which faces the infrared sensor element, characterized in that the optical filter (30a, 30b) is sandwiched between the holder and the infrared sensor element, an adhesion region comprising a recess part (23a, 23b) is provided at a location apart from the optical filter accommodation part on the facing surface of the holder, the adhesive being provided at the recess part of the adhesive region so as to adhere the holder and the infrared sensor element together through the applied adhesive at locations apart from the optical filter (30a, 30b), and a groove (25a, 25b) for keeping adhesive leaked from the adhesion region within said groove is provided between the adhesion region and the optical filter accommodation part on the facing surface of the holder. an infrared sensor element, which is a semiconductor package comprising a sensor chip (1a, 1b); an optical filter (30a, 30b) which faces a light reception surface (2a, 2b) of the sensor chip (1a, 1b) and is placed in order to cover the light reception surface (2a, 2b) of the sensor chip (1a, 1b); and a holder holding the infrared sensor element and the optical filter; and an adhesive for bonding the infrared sensor element and the holder, wherein the holder includes a recessed optical filter accommodation part (21a, 21b) for accommodating the optical filter, provided on a facing surface of the holder which faces the infrared sensor element, characterized in that the optical filter (30a, 30b) is sandwiched between the holder and the infrared sensor element, an adhesion region comprising a recess part (23a, 23b) is provided at a location apart from the optical filter accommodation part on the facing surface of the holder, the adhesive being provided at the recess part of the adhesive region so as to adhere the holder and the infrared sensor element together through the applied adhesive at locations apart from the optical filter (30a, 30b), and a groove (25a, 25b) for keeping adhesive leaked from the adhesion region within said groove is provided between the adhesion region and the optical filter accommodation part on the facing surface of the holder.
A ceramic laminate comprised of a base member layer on a partial or an entire surface of which a composite ceramic layer containing an alumina phase and a zirconia phase is covered, said ceramic laminate having, at any cross-section perpendicular to bonding interfaces of said composite ceramic layer and said base member layer, a structure of a first phase comprised of either of said alumina phase or said zirconia phase in which second phase particles comprised of the other of said zirconia phase or said alumina phase with a smaller total area ratio than said first phase are dispersed, and having, when measuring said second phase particles with circle equivalent diameters of 0.01 μm or more in said cross-section and voids, a maximum value of circle equivalent diameter of said second phase particles of 5 μm or less, an average value of circle equivalent diameter of said second phase particles of 0.02 μm to 0.3 μm, an average value of the values of long axes of equivalent ellipses when viewing said second phase particles as ellipses divided by the short axes of 2 to 10, and an area ratio of voids of 5% or less. said ceramic laminate having, at any cross-section perpendicular to bonding interfaces of said composite ceramic layer and said base member layer, a structure of a first phase comprised of either of said alumina phase or said zirconia phase in which second phase particles comprised of the other of said zirconia phase or said alumina phase with a smaller total area ratio than said first phase are dispersed, and having, when measuring said second phase particles with circle equivalent diameters of 0.01 μm or more in said cross-section and voids, a maximum value of circle equivalent diameter of said second phase particles of 5 μm or less, an average value of circle equivalent diameter of said second phase particles of 0.02 μm to 0.3 μm, an average value of the values of long axes of equivalent ellipses when viewing said second phase particles as ellipses divided by the short axes of 2 to 10, and an area ratio of voids of 5% or less.
A pharmaceutical salt of 1-cyclopropyl-8-methyl-7-[5-methyl-6-(methylamino)-3-pyridinyl]-4-oxo-1,4-dihydro-3-quinolinecarboxylic acid which is the hydrochloride hydrate having a solubility of ≥ 0.050 mg/mL of water.