mhurhangee/ep-ind-claims huggingface dataset:
A device comprising: a receptacle connector includes a first edge and a second edge that abut an opening of the receptacle connector, wherein the second edge and the first edge are on opposite sides of the opening of the receptacle connector; and a plug that mates with the receptacle connector by insertion of an insert portion of the plug into an opening of the receptacle connector; wherein the plug includes a pair of bosses (52, 54) on a common side of the insert portion; wherein the pair of bosses (52, 54) are located at opposite ends of the insert portion; wherein the receptacle connector has a pair of boss-receiving slots (32, 34) on the second edge of the receptacle connector and the pair of boss-receiving slots (32, 34) are located at opposite ends of the opening and configured to receive respective bosses (52, 54) of the insert portion during mating of the plug with the receptacle connector; characterised in that the plug includes polarization keys (42, 44), wherein the polarization keys (42, 44) have respective pairs of curved side surfaces (72 and 73, 74 and 75) along the insert portion of the plug; and the receptacle connector also includes a pair of polarization slots (22, 24) on the first edge of the opening, wherein the respective pairs of curved side surfaces of the polarization keys (42, 44) are configured to allow the polarization keys (42, 44) to enter the polarization slots (22, 24) when the plug is pivoted about one of the bosses (52, 54) that has been inserted into one of the pair of boss-receiving slots (32, 34). a receptacle connector includes a first edge and a second edge that abut an opening of the receptacle connector, wherein the second edge and the first edge are on opposite sides of the opening of the receptacle connector; and a plug that mates with the receptacle connector by insertion of an insert portion of the plug into an opening of the receptacle connector; wherein the plug includes a pair of bosses (52, 54) on a common side of the insert portion; wherein the pair of bosses (52, 54) are located at opposite ends of the insert portion; wherein the receptacle connector has a pair of boss-receiving slots (32, 34) on the second edge of the receptacle connector and the pair of boss-receiving slots (32, 34) are located at opposite ends of the opening and configured to receive respective bosses (52, 54) of the insert portion during mating of the plug with the receptacle connector; characterised in that the plug includes polarization keys (42, 44), wherein the polarization keys (42, 44) have respective pairs of curved side surfaces (72 and 73, 74 and 75) along the insert portion of the plug; and the receptacle connector also includes a pair of polarization slots (22, 24) on the first edge of the opening, wherein the respective pairs of curved side surfaces of the polarization keys (42, 44) are configured to allow the polarization keys (42, 44) to enter the polarization slots (22, 24) when the plug is pivoted about one of the bosses (52, 54) that has been inserted into one of the pair of boss-receiving slots (32, 34).
A method for controlling a hydraulic system (20; 120; 160) of a working machine, the hydraulic system comprising a first hydraulic machine (21; 121) for providing hydraulic fluid to a first actuator (22; 122) of the working machine, and a second hydraulic machine (23; 123) for providing hydraulic fluid to a second actuator (24; 124) of the working machine and for providing hydraulic fluid to the first actuator (22; 122), the method comprising: using a first control mode, and in the first control mode allowing a flow of hydraulic fluid from the second hydraulic machine (23; 123) solely to the second actuator (24; 124) and thus no hydraulic flow is allowed from the second hydraulic machine to the first actuator, the pump pressure of the second hydraulic machine being selected based on the load pressure of the second actuator (24; 124) independently of the load pressure of the first actuator (22; 122), and using a second control mode provided that the requested flow to the first actuator (22; 122) exceeds a predetermined threshold value, and in the second control mode allowing a flow of hydraulic fluid from the second hydraulic machine (23; 123) to the first actuator (22; 122), the pump pressure of the second hydraulic machine (23; 123) being selected based on the highest value of the load pressure of the second actuator (24; 124) and the load pressure of the first actuator (22; 122). using a first control mode, and in the first control mode allowing a flow of hydraulic fluid from the second hydraulic machine (23; 123) solely to the second actuator (24; 124) and thus no hydraulic flow is allowed from the second hydraulic machine to the first actuator, the pump pressure of the second hydraulic machine being selected based on the load pressure of the second actuator (24; 124) independently of the load pressure of the first actuator (22; 122), and using a second control mode provided that the requested flow to the first actuator (22; 122) exceeds a predetermined threshold value, and in the second control mode allowing a flow of hydraulic fluid from the second hydraulic machine (23; 123) to the first actuator (22; 122), the pump pressure of the second hydraulic machine (23; 123) being selected based on the highest value of the load pressure of the second actuator (24; 124) and the load pressure of the first actuator (22; 122).
Hip joint endoprosthesis which on a femoral component has a j oint ball which forms a sliding pairing with a one-piece joint socket made of plastic, wherein the joint socket can be anchored in a pelvic bone with at least one screw and the at least one screw can be placed in at least one bore and wherein the at least one bore is closed by a barrier, wherein the barrier is a membrane, wherein the membrane is present in one piece with the joint socket, and wherein the membrane is embodied in such a way that the screw pierces the membrane when it is inserted into the bore.
A prefabricated multi-test kit, the prefabricated kit comprising: a plurality of reaction cells, each one of at least two of said reaction cells holding reagents of a respective, different set of at least two tests selected from a group consisting of a plurality of different tests, the tests being distributed among the reaction cells in a manner that leaves reagents of each different one of the tests of the group in a respective different sub-combination of said reaction cells, and allows any sub-combination of said reaction cells to be indicative of a sub-group comprising all positive tests of the group when each reaction cell of the sub-combination that is indicative of the sub-group, contains an at least one positive test and none of the remaining reaction cells contain a positive test, the reaction cells being fewer than the tests being distributed among the reaction cells.
A rotating outer wall material (2, 3), comprising: a flat plate body capable of rotating in a state where a first surface is directed outdoors and in a state where a second surface is directed outdoors, and a rotation mechanism capable of rotating in a horizontal direction while maintaining a vertical position of the flat plate body, wherein the flat plate body uses atmospheric heat, and provides an air conditioning effect to a room in both of the state where the first surface is directed outdoors and the state where the second surface is directed outdoors, and the flat plate body includes two sheets of a plate material that form a space sandwiched between the two sheets of the plate material; a liquid that is encapsulated between the two sheets of the plate material; and a slope that forms a liquid circulation structure in which a storage part (Res) of the liquid is formed on one plate material side of the two sheets of the plate material, the liquid in the storage part (Res) evaporated by heat of the one plate material side reaches the other plate material side, and the liquid condensed on the other plate material side is returned to the storage part (Res) again. a flat plate body capable of rotating in a state where a first surface is directed outdoors and in a state where a second surface is directed outdoors, and a rotation mechanism capable of rotating in a horizontal direction while maintaining a vertical position of the flat plate body, wherein the flat plate body uses atmospheric heat, and provides an air conditioning effect to a room in both of the state where the first surface is directed outdoors and the state where the second surface is directed outdoors, and the flat plate body includes two sheets of a plate material that form a space sandwiched between the two sheets of the plate material; a liquid that is encapsulated between the two sheets of the plate material; and a slope that forms a liquid circulation structure in which a storage part (Res) of the liquid is formed on one plate material side of the two sheets of the plate material, the liquid in the storage part (Res) evaporated by heat of the one plate material side reaches the other plate material side, and the liquid condensed on the other plate material side is returned to the storage part (Res) again.
A method of making a content use monitoring package comprising the steps of aligning a blister card having blisters on a top side with a cover having cut-outs so the blisters of the blister card are aligned with the respective cut-outs of the cover; connecting an electronic sensor monitoring tag having re-usable electronic circuitry and power source to a conductive grid printed on a thin flexible substrate so the tag and grid are in electrical continuity to form a monitoring device; aligning the conductive grid with the blisters on the blister card; obtaining a backing having cut-outs corresponding to the blister positions of the blister card and having a die-cut pull-out corresponding to the position of the tag on the monitoring device; and sealing the backing to the cover with the blister card and monitoring device sandwiched between; wherein the tag is removable by opening the pull-out and unplugging the tag from the grid. aligning a blister card having blisters on a top side with a cover having cut-outs so the blisters of the blister card are aligned with the respective cut-outs of the cover; connecting an electronic sensor monitoring tag having re-usable electronic circuitry and power source to a conductive grid printed on a thin flexible substrate so the tag and grid are in electrical continuity to form a monitoring device; aligning the conductive grid with the blisters on the blister card; obtaining a backing having cut-outs corresponding to the blister positions of the blister card and having a die-cut pull-out corresponding to the position of the tag on the monitoring device; and sealing the backing to the cover with the blister card and monitoring device sandwiched between;
A biocompatible phase invertable composition, suitable for use as a sealant, that goes from a first fluid state to a second non-fluid state, wherein said biocompatible phase invertable composition comprises: (a) a fluid substrate comprising a proteinaceous material, and (b) a heat stabilized glutaraldehyde crosslinking agent; wherein said biocompatible phase invertable composition further comprises a buffer and wherein said biocompatible phase invertable composition remains in a fluid state, following combination of the fluid substrate and the heat stabilized glutaraldehyde crosslinking agent, for a period of time ranging from 10 seconds to 10 minutes when maintained at a temperature ranging from 15 °C to 40 °C. (a) a fluid substrate comprising a proteinaceous material, and (b) a heat stabilized glutaraldehyde crosslinking agent;
A micromechanical Coriolis rate of rotation sensor for detecting a rate of rotation, comprising: a substrate, a measurement axis (X-axis), a detection axis (Y-axis), and a drive axis (Z-axis), each disposed orthogonally to each other, a first and a second driving mass disposed in an X-Y plane parallel to the substrate, each driving mass being rotatably connected to the substrate by means of a central suspension, the two central suspensions being disposed along the Y-axis, drive means for generating a rotational oscillation of the driving masses about the drive axis at each central suspension, characterized in that the sensor comprises at least two elastic connecting elements connecting the two driving masses to each other, wherein at least one of said at least two elastic connecting elements is connected to each of the driving masses on each side of the Y-axis, and wherein the at least two elastic connecting elements are spaced apart from the Y-axis for connecting the two driving masses and for a mutually tuned oscillation of the two driving masses respectively. a substrate, a measurement axis (X-axis), a detection axis (Y-axis), and a drive axis (Z-axis), each disposed orthogonally to each other, a first and a second driving mass disposed in an X-Y plane parallel to the substrate, each driving mass being rotatably connected to the substrate by means of a central suspension, the two central suspensions being disposed along the Y-axis, drive means for generating a rotational oscillation of the driving masses about the drive axis at each central suspension, characterized in that the sensor comprises at least two elastic connecting elements connecting the two driving masses to each other, wherein at least one of said at least two elastic connecting elements is connected to each of the driving masses on each side of the Y-axis, and wherein the at least two elastic connecting elements are spaced apart from the Y-axis for connecting the two driving masses and for a mutually tuned oscillation of the two driving masses respectively.
A hydraulic control valve for a construction machine, comprising: a valve body including a port (Pi) for a pilot pump, through which a pilot pressure is introduced, a tank port through which the pilot pressure is drained, and a secondary pilot pressure port configured to selectively fluidically communicate with the port (Pi) for the pilot pump or the tank port; a shifting device rotatably mounted on the valve body; a rod configured to be shifted in cooperation with the shifting device when the shifting device is pressedly rotated; a pilot control valve including a spool that configured to be shifted in response to the shifting of the rod to cause the port (Pi) for the pilot pump and the secondary pilot pressure port to fluidically communicate with each other to set a secondary pilot pressure in proportion to a shifting amount of the shifting device; a valve spring configured to elastically support the spool to cause the secondary pilot pressure port and the tank port to fluidically communicate with each other; characterized by a pilot path including an inlet that fluidically communicates with the secondary pilot pressure port and an outlet that fluidically communicates with the port (Pi) for the pilot pump; and a check poppet openably or closably installed in the pilot path so as to allow for the uni-directional movement of a hydraulic fluid from the secondary pilot pressure port to the port (Pi) for the pilot pump.
A housing assembly for an air conditioner, comprising: a face frame having a first sealing part; a panel coupled to the face frame and arranged on a side of the face frame, the panel having a second sealing part; and a chassis having an opening and coupled to the face frame, characterised by the chassis having a third sealing part and a fourth sealing part spaced apart from each other, the fourth sealing part being arranged at an edge of the opening, the third sealing part being fitted with the first sealing part, and the fourth sealing part being fitted with the second sealing part; wherein one of the second sealing part and the fourth sealing part comprises a second groove, and the other of the second sealing part and the fourth sealing part comprises a second protrusion. a face frame having a first sealing part; a panel coupled to the face frame and arranged on a side of the face frame, the panel having a second sealing part; and a chassis having an opening and coupled to the face frame, characterised by the chassis having a third sealing part and a fourth sealing part spaced apart from each other, the fourth sealing part being arranged at an edge of the opening, the third sealing part being fitted with the first sealing part, and the fourth sealing part being fitted with the second sealing part; wherein one of the second sealing part and the fourth sealing part comprises a second groove, and the other of the second sealing part and the fourth sealing part comprises a second protrusion.
A method for transmitting control information by a terminal in a wireless communication system, the method comprising: receiving downlink control information in a first subframe; determining to transmit control information in a third subframe, wherein the third subframe is every subframe among the first subframe to the last subframe of the active time; transmitting the control information in the third subframe; determining whether to transmit control information in a second subframe following the first subframe, wherein the second subframe is every subframe following the last subframe of the active time duration and prior to the m-th subframe following the first subframe, wherein m is 4; and transmitting the control information in the second subframe based on the determination whether to transmit control information in the second subframe, wherein the first subframe is determined to be a n-th subframe prior to the last subframe of the active time duration, the n being an integer value from 1 to 2. receiving downlink control information in a first subframe; determining to transmit control information in a third subframe, wherein the third subframe is every subframe among the first subframe to the last subframe of the active time; transmitting the control information in the third subframe; determining whether to transmit control information in a second subframe following the first subframe, wherein the second subframe is every subframe following the last subframe of the active time duration and prior to the m-th subframe following the first subframe, wherein m is 4; and transmitting the control information in the second subframe based on the determination whether to transmit control information in the second subframe, wherein the first subframe is determined to be a n-th subframe prior to the last subframe of the active time duration, the n being an integer value from 1 to 2.
An implantable medical device comprising: a sensing circuit (90, 112) configured to sense and output physiologic data indicative of a physiologic characteristic of a patient; at least one processor; a memory coupled to the at least one processor, the memory to store program instructions and processed data, wherein the program instructions are executable by the at least one processor to execute general operational functions within the IMD; and a hybrid signal processing circuit (120, 300) coupled to the at least one processor and the sensing circuit (90,112), the HSP circuit (120, 300) adapted to filter the physiologic data; the HSP circuit (120, 300) comprising: a plurality of first order filters (302, 304), and a plurality of higher order filters, characterized in that the HSP circuit (120, 300) comprises: a switch matrix configured to interconnecting a combination of the first and higher order filters (302, 304, 306) to form a hybrid digital filter having a select composite frequency response that utilizes no more than a select power demand. a sensing circuit (90, 112) configured to sense and output physiologic data indicative of a physiologic characteristic of a patient; at least one processor; a memory coupled to the at least one processor, the memory to store program instructions and processed data, wherein the program instructions are executable by the at least one processor to execute general operational functions within the IMD; and a hybrid signal processing circuit (120, 300) coupled to the at least one processor and the sensing circuit (90,112), the HSP circuit (120, 300) adapted to filter the physiologic data; the HSP circuit (120, 300) comprising: a plurality of first order filters (302, 304), and a plurality of higher order filters, characterized in that the HSP circuit (120, 300) comprises: a switch matrix configured to interconnecting a combination of the first and higher order filters (302, 304, 306) to form a hybrid digital filter having a select composite frequency response that utilizes no more than a select power demand. a plurality of first order filters (302, 304), and a plurality of higher order filters, characterized in that the HSP circuit (120, 300) comprises: a switch matrix configured to interconnecting a combination of the first and higher order filters (302, 304, 306) to form a hybrid digital filter having a select composite frequency response that utilizes no more than a select power demand.
A carbon catalyst, comprising: a conductive carbon material of one or more kinds selected from a group consisting of carbon black, carbon nanotube, carbon nanofiber, graphite, activated carbon, glass-like carbon, carbon fiber, and fullerene; a carbon structure coating a surface of the conductive carbon material; and a transition metal, wherein the carbon structure is formed of a carbon network plane in which, in a distribution of crystallite sizes La of 7.2 nm or less, (i) a ratio of crystallite sizes of 2 to 5 nm is 80% or more, and a ratio of crystallite sizes of less than 2 nm is 15% or less, or (ii) a ratio of crystallite sizes of 3 to 5 nm is 50% or more, wherein crystallite sizes La refers to the spread of a carbon network plane in an a-axis direction and wherein the distribution of the crystallite sizes is determined according to the description. a conductive carbon material of one or more kinds selected from a group consisting of carbon black, carbon nanotube, carbon nanofiber, graphite, activated carbon, glass-like carbon, carbon fiber, and fullerene; a carbon structure coating a surface of the conductive carbon material; and a transition metal, wherein the carbon structure is formed of a carbon network plane in which, in a distribution of crystallite sizes La of 7.2 nm or less, (i) a ratio of crystallite sizes of 2 to 5 nm is 80% or more, and a ratio of crystallite sizes of less than 2 nm is 15% or less, or (ii) a ratio of crystallite sizes of 3 to 5 nm is 50% or more, wherein crystallite sizes La refers to the spread of a carbon network plane in an a-axis direction and wherein the distribution of the crystallite sizes is determined according to the description. (i) a ratio of crystallite sizes of 2 to 5 nm is 80% or more, and a ratio of crystallite sizes of less than 2 nm is 15% or less, or (ii) a ratio of crystallite sizes of 3 to 5 nm is 50% or more, wherein crystallite sizes La refers to the spread of a carbon network plane in an a-axis direction and wherein the distribution of the crystallite sizes is determined according to the description.