mhurhangee/ep-ind-claims huggingface dataset:
A system for inspecting an object comprising: an imaging assembly for obtaining a video image of the object having a coating; a detection module configured to identify a coating loss (214, 218A) and a crack (216A, 218B) in the object in the video image; an analysis module configured to map the video image to a three-dimensional model and to assign at least a rank of distress to the object, wherein the rank of distress is based on at least one dimension of the identified coating loss and at least one dimension of the identified crack; and a memory (158, 162, 116) for storing at least the rank of distress for the object in the video image; wherein the rank of distress is indicative of whether the object needs repair or replacement. an imaging assembly for obtaining a video image of the object having a coating; a detection module configured to identify a coating loss (214, 218A) and a crack (216A, 218B) in the object in the video image; an analysis module configured to map the video image to a three-dimensional model and to assign at least a rank of distress to the object, wherein the rank of distress is based on at least one dimension of the identified coating loss and at least one dimension of the identified crack; and a memory (158, 162, 116) for storing at least the rank of distress for the object in the video image; wherein the rank of distress is indicative of whether the object needs repair or replacement.
A rotation position sensor (60; 160) comprising: a hub mount configured to lock within a shaft of a joint between two rotatably attached parts; a first sensor component attached to the hub mount; and a second sensor component (82, 84) attached to the rotatably attached part that does not rotate with the joint of the shaft. a hub mount configured to lock within a shaft of a joint between two rotatably attached parts; a first sensor component attached to the hub mount; and a second sensor component (82, 84) attached to the rotatably attached part that does not rotate with the joint of the shaft.
A refill container comprising: a mounting portion having a structure to be mounted over an internal tray having a cosmetic material held therein, in such a manner as to cover an exposed surface of said cosmetic material, said mounting portion comprising a lid portion (24, 40) that faces said exposed surface and protects said exposed surface in a mounted state and a holding portion that holds said internal tray in such a manner that the bottom surface of said internal tray is exposed in said mounted state; and an engaging portion (21, 31) that engages with said internal tray in said mounted state, and prevents disengagement of said internal tray from the mounting portion; characterised by further comprising a step portion formed between said lid portion (24, 40) and said holding portion, said step portion being in contact with a top end portion of said internal tray in said mounted state. a mounting portion having a structure to be mounted over an internal tray having a cosmetic material held therein, in such a manner as to cover an exposed surface of said cosmetic material, said mounting portion comprising a lid portion (24, 40) that faces said exposed surface and protects said exposed surface in a mounted state and a holding portion that holds said internal tray in such a manner that the bottom surface of said internal tray is exposed in said mounted state; and an engaging portion (21, 31) that engages with said internal tray in said mounted state, and prevents disengagement of said internal tray from the mounting portion; characterised by further comprising a step portion formed between said lid portion (24, 40) and said holding portion, said step portion being in contact with a top end portion of said internal tray in said mounted state.
An optical system comprising a composite lens barrel comprising two lens barrels (11A, 11B) having the same structure, the composite lens barrel comprising two imaging optical systems (A, B); two holders including one holder to hold one imaging optical system, and another holder to hold the other imaging optical system, wherein each of the two lens barrels (11A, 11B) supports one of the two imaging optical systems (A, B); each holder including: a lens positioner (38, 39) to determine a position of a lens constituting each imaging optical system (A, B); and two contacts (50, 51) disposed apart from the lens positioner (38, 39), wherein, when the one holder is combined with the other holder, the two contacts (50, 51) of the one holder contact the two contacts (50, 51) of the other holder with the lens maintained at the position determined by the lens positioner (38, 39) of each holder; characterized in that each holder further includes two cylindrical bosses (52, 53) and the two contacts (50, 51) of each of the respective holders are end surfaces of the cylindrical bosses (52, 53), the end surfaces being parallel to each other. two imaging optical systems (A, B); two holders including one holder to hold one imaging optical system, and another holder to hold the other imaging optical system, wherein each of the two lens barrels (11A, 11B) supports one of the two imaging optical systems (A, B); each holder including: a lens positioner (38, 39) to determine a position of a lens constituting each imaging optical system (A, B); and two contacts (50, 51) disposed apart from the lens positioner (38, 39), a lens positioner (38, 39) to determine a position of a lens constituting each imaging optical system (A, B); and two contacts (50, 51) disposed apart from the lens positioner (38, 39), wherein, when the one holder is combined with the other holder, the two contacts (50, 51) of the one holder contact the two contacts (50, 51) of the other holder with the lens maintained at the position determined by the lens positioner (38, 39) of each holder; characterized in that each holder further includes two cylindrical bosses (52, 53) and the two contacts (50, 51) of each of the respective holders are end surfaces of the cylindrical bosses (52, 53), the end surfaces being parallel to each other.
Filter pipette tip with a small tube with a relatively large aperture at one end for attaching to a pipette, a relatively small aperture at the other end for the passage of liquid and a through-channel between the large aperture and the small aperture and a porous filter arranged in the through-channel filling up a portion of the through-channel which contains a superabsorber that is layered in hollow spaces of the filter, wherein the through-channel between the small aperture and the filter comprises a receiving volume for receiving a liquid sample and between the filter and the large aperture is a channel for displacing a gas column, characterized in that the filter comprises only two layers (11, 12) arranged in series in the direction of the through-channel, of which one layer contains the superabsorber, wherein the layer containing the superabsorber is arranged closer to the large aperture than the layer without superabsorber.
A fluid conduit connection system, comprising: a bearing assembly, including: a bearing pipe having a fluid flow path; and a bearing element stack located exterior to the bearing pipe and disposed substantially annularly about the bearing pipe; wherein the bearing element stack is configured to receive a compressive force from the bearing pipe; wherein the bearing element stack is configured to allow rotation of the bearing pipe about a centre of rotation of the bearing assembly; and wherein the bearing element stack comprises: a plurality of flexible elements; and a plurality of intermediate shims disposed between adjacent flexible elements, characterised in that the bearing element stack further comprises: an upper bonding shim; and a lower bonding shim. a bearing assembly, including: a bearing pipe having a fluid flow path; and a bearing element stack located exterior to the bearing pipe and disposed substantially annularly about the bearing pipe; a bearing pipe having a fluid flow path; and a bearing element stack located exterior to the bearing pipe and disposed substantially annularly about the bearing pipe; wherein the bearing element stack is configured to receive a compressive force from the bearing pipe; wherein the bearing element stack is configured to allow rotation of the bearing pipe about a centre of rotation of the bearing assembly; and wherein the bearing element stack comprises: a plurality of flexible elements; and a plurality of intermediate shims disposed between adjacent flexible elements, a plurality of flexible elements; and a plurality of intermediate shims disposed between adjacent flexible elements, characterised in that the bearing element stack further comprises: an upper bonding shim; and a lower bonding shim. an upper bonding shim; and a lower bonding shim.
Method for operating an internal combustion engine, which comprises at least one cylinder into which fresh air is introduced during an operating cycle of the internal combustion engine in order to achieve a specific desired volumetric efficiency, wherein the desired volumetric efficiency is limited to a maximal volumetric efficiency, which is set to a first set value at a start of the internal combustion engine and is increased in the direction of a second set value after the start of the internal combustion engine, and wherein the maximal volumetric efficiency is determined as a function of a temperature of the internal combustion engine, wherein the maximal volumetric efficiency is selected to be smaller at a lower temperature than at a higher temperature, characterized in that the maximal volumetric efficiency is increased in such a way that the maximal volumetric efficiency reaches the second set value when an operating temperature is reached, which is present during quasi-stationary operation of the internal combustion engine.
A mounting device for a fastening groove being a U-shaped profile and configured to be mounted between glass plates of an insulating glass unit, which mounting device is configured to be fastened to an end of the fastening groove, characterized in that the mounting device is a plate-like element and comprises at least an inner guide wall and at least an outer guide wall on its planar side surface for guiding fastening of the mounting device to the end of the fastening groove, and in that the space between the inner and outer guide walls (101, 102) corresponds the cross-section of the fastening groove.
Holding fixture for coupling a hole saw to a mechanical drive, comprising a holder shank for connecting to the mechanical drive and a connection piece fixedly associated with the hole saw, connectable to the holder shank without a tool, wherein the holder shank and the connection piece are configured as parts of a plug-in coupling, wherein the plug-in coupling includes a securing sleeve turnable and/or shiftable between a locking position and a release position and a latching element, wherein the latching element in the locking position engages in a latching groove on the connection piece and/or the holder shank, wherein the holder shank has a front surface facing the hole saw, and wherein the holder shank includes at least one driving pin protruding from the front surface, characterized in that the holder shank and the connection piece include mutually complementary straight cylindrical sections, wherein the latching groove is provided on the straight cylindrical section of the connection piece, and in that the holder shank and the connection piece include mutually complementary conical contact surfaces (302, 312), wherein the conical contact surfaces (302, 312) are disposed between ends of the connection piece and of the holder shank facing the hole saw and the straight cylindrical sections.
Emulsion comprising an isocyanate-reactive composition A, containing a polyol mixture A1 consisting of at least three polyols A1a, A1b and A1c as the continuous phase and at least one physical blowing agent T as the disperse phase, wherein: (i) A1a is a polyether polyol having a hydroxyl value from 15 mg KOH/g to 550 mg KOH/g and a functionality from 1.5 to 6.0, obtained by the addition of an epoxy to one or more starter compound(s) selected from the group consisting of carbohydrates and difunctional or higher-functional alcohols; (ii) A1b is a polyether polyol having a hydroxyl value from 100 mg KOH/g to 550 mg KOH/g and a functionality from 1.5 to 5.0, obtained by the addition of an epoxy to an aromatic amine; (iii) A1c is a polyester polyether polyol having a hydroxyl value from 100 mg KOH/g to 450 mg KOH/g and a functionality from 1.5 to 3.5, obtained by the addition of an epoxy to the esterification product of an aromatic dicarboxylic acid derivative and a difunctional or higher-functional alcohol wherein polyol A1b from 5 mass % to 50 mass%, relative to the total mass of the isocyanate-reactive composition A, is present in the isocyanate-reactive composition A. an isocyanate-reactive composition A, containing a polyol mixture A1 consisting of at least three polyols A1a, A1b and A1c as the continuous phase and at least one physical blowing agent T as the disperse phase, wherein: (i) A1a is a polyether polyol having a hydroxyl value from 15 mg KOH/g to 550 mg KOH/g and a functionality from 1.5 to 6.0, obtained by the addition of an epoxy to one or more starter compound(s) selected from the group consisting of carbohydrates and difunctional or higher-functional alcohols; (ii) A1b is a polyether polyol having a hydroxyl value from 100 mg KOH/g to 550 mg KOH/g and a functionality from 1.5 to 5.0, obtained by the addition of an epoxy to an aromatic amine; (iii) A1c is a polyester polyether polyol having a hydroxyl value from 100 mg KOH/g to 450 mg KOH/g and a functionality from 1.5 to 3.5, obtained by the addition of an epoxy to the esterification product of an aromatic dicarboxylic acid derivative and a difunctional or higher-functional alcohol (i) A1a is a polyether polyol having a hydroxyl value from 15 mg KOH/g to 550 mg KOH/g and a functionality from 1.5 to 6.0, obtained by the addition of an epoxy to one or more starter compound(s) selected from the group consisting of carbohydrates and difunctional or higher-functional alcohols; (ii) A1b is a polyether polyol having a hydroxyl value from 100 mg KOH/g to 550 mg KOH/g and a functionality from 1.5 to 5.0, obtained by the addition of an epoxy to an aromatic amine; (iii) A1c is a polyester polyether polyol having a hydroxyl value from 100 mg KOH/g to 450 mg KOH/g and a functionality from 1.5 to 3.5, obtained by the addition of an epoxy to the esterification product of an aromatic dicarboxylic acid derivative and a difunctional or higher-functional alcohol
A method comprising: receiving, at a messaging server, message data; receiving, with the messaging server, data comprising patient identifying information, where the patient identifying information is specified by a user and contained in the message data; determining, with the messaging server, plural recipients based on the patient identifying information by accessing an electronic medical records system via a web interface and dynamically creating a patient object that is uniquely named according to patient identifying information, the patient object comprising at least one channel available for communications in the context of that patient that defines plural recipients for the message associated with the patient's medical treatment; determining, with the messaging server, end point protocols for devices associated with the plural recipients and generating, with the messaging server, a plurality of formatted messages comprising the message data, each of the formatted messages being formatted according to a different one of a plurality of endpoint protocols for recipient devices; and sending, with the messaging server, the plurality of formatted messages to a plurality of recipient devices, wherein each message is transmitted to the recipient device using the same endpoint protocol as the endpoint protocol used for formatting the message. receiving, at a messaging server, message data; receiving, with the messaging server, data comprising patient identifying information, where the patient identifying information is specified by a user and contained in the message data; determining, with the messaging server, plural recipients based on the patient identifying information by accessing an electronic medical records system via a web interface and dynamically creating a patient object that is uniquely named according to patient identifying information, the patient object comprising at least one channel available for communications in the context of that patient that defines plural recipients for the message associated with the patient's medical treatment; determining, with the messaging server, end point protocols for devices associated with the plural recipients and generating, with the messaging server, a plurality of formatted messages comprising the message data, each of the formatted messages being formatted according to a different one of a plurality of endpoint protocols for recipient devices; and sending, with the messaging server, the plurality of formatted messages to a plurality of recipient devices, wherein each message is transmitted to the recipient device using the same endpoint protocol as the endpoint protocol used for formatting the message.
Equipment housing for a blood treatment device having a housing wall and a closing flap closing an opening in the housing wall in a first position and wherein a coupling element is rotatably mounted with respect to the housing wall via a first pivot and the closing flap is rotatably mounted with respect to the coupling element via a second pivot, wherein the closing flap can be disposed in at least one defined second working position in which the opening in the housing wall is not closed, characterized in that the closing flap comprises at least parts (28,29) of an extracorporal blood treatment module comprising at least a pump, a flow meter, a valve, and/or a closing clamp.
An information sending method, comprising: acquiring, by at least two base stations eNBs, information to be delivered to user equipment UE; scrambling, by using a same scrambling code, the information to be delivered to the UE; and delivering scrambled information to the UE at a same moment, characterized by, when the information to be delivered to the UE is paging messages, before the scrambling, by the at least two eNBs by using a same scrambling code, the information to be delivered to the UE, the method further comprises: receiving, by the at least two eNBs, configuration information sent by a network management entity, wherein the configuration information carries parameter information that is used to determine a sending moment for sending the paging messages; wherein the delivering scrambled information to the UE at a same moment specifically comprises: determining, by the at least two eNBs according to the parameter information carried in the configuration information, the sending moment for sending the paging messages, and delivering scrambled paging messages to the UE at the determined sending moment. acquiring, by at least two base stations eNBs, information to be delivered to user equipment UE; scrambling, by using a same scrambling code, the information to be delivered to the UE; and delivering scrambled information to the UE at a same moment, characterized by, when the information to be delivered to the UE is paging messages, before the scrambling, by the at least two eNBs by using a same scrambling code, the information to be delivered to the UE, the method further comprises: receiving, by the at least two eNBs, configuration information sent by a network management entity, wherein the configuration information carries parameter information that is used to determine a sending moment for sending the paging messages; wherein the delivering scrambled information to the UE at a same moment specifically comprises: determining, by the at least two eNBs according to the parameter information carried in the configuration information, the sending moment for sending the paging messages, and delivering scrambled paging messages to the UE at the determined sending moment. receiving, by the at least two eNBs, configuration information sent by a network management entity, wherein the configuration information carries parameter information that is used to determine a sending moment for sending the paging messages; wherein the delivering scrambled information to the UE at a same moment specifically comprises: determining, by the at least two eNBs according to the parameter information carried in the configuration information, the sending moment for sending the paging messages, and delivering scrambled paging messages to the UE at the determined sending moment.
An intracavity system for illuminating a surgical site within a body cavity to be used with a stationary surgical device, the system comprising: a coupling assembly; and at least one light source comprising a light-emitting diode configured and operable to emit illumination light into said body cavity; said light-emitting diode being mounted on the coupling assembly; the coupling assembly being configured to secure said light-emitting diode to an external surface of said stationary surgical device to permit selective fastening of said light source to any desired location along said stationary surgical device and repositioning thereof; wherein said coupling assembly comprises two spaced-apart magnetic elements of opposite magnetic polarity, a first magnetic element being configured to be fastened to said light source and a second magnetic element being configured to be mounted on the external surface of the surgical device; wherein said two spaced-apart magnetic elements are connected via a first wire; wherein each of said at least one light source is connected via a second wire to a self-contained electrical power supply unit, said second wire being configured to transmit power supply energy from the power supply unit to the light source. a coupling assembly; and at least one light source comprising a light-emitting diode configured and operable to emit illumination light into said body cavity; said light-emitting diode being mounted on the coupling assembly; the coupling assembly being configured to secure said light-emitting diode to an external surface of said stationary surgical device to permit selective fastening of said light source to any desired location along said stationary surgical device and repositioning thereof; wherein said coupling assembly comprises two spaced-apart magnetic elements of opposite magnetic polarity, a first magnetic element being configured to be fastened to said light source and a second magnetic element being configured to be mounted on the external surface of the surgical device; wherein said two spaced-apart magnetic elements are connected via a first wire; wherein each of said at least one light source is connected via a second wire to a self-contained electrical power supply unit, said second wire being configured to transmit power supply energy from the power supply unit to the light source.