mhurhangee/patent-ind-claim-en huggingface dataset:
A slide member for safety systems, in particular lifelines, fall arrest systems, rails and the like which has two articulated parts that form a guide opening for receiving the lifeline , rail or the like and a slot substantially parallel to the axis of the guide opening , wherein the two parts of the slide member are able to be tilted relative to each other about an axis that is substantially parallel to the axis of the guide opening by means of a pivot and to be moved parallel to the axis of the guide opening , one of the parts has at least one recess and the other part has at least one projection adapted to be geometrically coupled to the recess by a displacement parallel to the axis of the guide opening , and each of the parts has an opening for receiving a snap hook and the opening of the two parts, in the closed position, is situated between the pivot and the slot , and wherein the projection and the recess are formed by a surface that is inclined to the horizontal plane of the axis of the guide opening and wherein said inclined surface has a width that is at least 1/3 the width of the slide member in the coupling zone.
A field-effect transistor comprising: a substrate ; a passivation layer ; a gate insulating layer formed between the substrate and the passivation layer; a source electrode and a drain electrode ; a semiconductor layer , which is formed at least between the source electrode and the drain electrode and is in contact with the gate insulating layer, the source electrode, and the drain electrode; and a gate electrode , which is in contact with the gate insulating layer and faces the semiconductor layer via the gate insulating layer, wherein the passivation layer comprises a first complex oxide comprising an alkaline earth metal and a rare-earth element, and wherein the gate insulating layer comprises a second complex oxide comprising an alkaline earth metal and a rare-earth element, wherein the first complex oxide comprises at least one of Zr and Hf, wherein the second complex oxide comprises at least one of Zr and Hf. a substrate ; a passivation layer ; a gate insulating layer formed between the substrate and the passivation layer; a source electrode and a drain electrode ; a semiconductor layer , which is formed at least between the source electrode and the drain electrode and is in contact with the gate insulating layer, the source electrode, and the drain electrode; and a gate electrode , which is in contact with the gate insulating layer and faces the semiconductor layer via the gate insulating layer, wherein the passivation layer comprises a first complex oxide comprising an alkaline earth metal and a rare-earth element, and wherein the gate insulating layer comprises a second complex oxide comprising an alkaline earth metal and a rare-earth element, wherein the first complex oxide comprises at least one of Zr and Hf, wherein the second complex oxide comprises at least one of Zr and Hf.
A method for manufacturing RFID identifiers each comprising an electronic chip and an antenna , this method comprising the steps of: - manufacturing a plurality of electronic chips on one face of a first support , - manufacturing a plurality of antennae on one face of a second support , - covering in a single operation said face of said first support and/or said face of said second support with an overall layer of a curable electrical conduction agent, - applying said first support against said second support so that said faces are opposite each other, and each antenna is opposite a respective electronic chip in order to assemble with the latter in a single operation and form a pair comprising said electronic chip and said antenna, - curing said electrical conduction agent so that said agent makes electrical connection between the microchips and antennae of each pair, and - cutting each chip/antenna pair of said assembly. - manufacturing a plurality of electronic chips on one face of a first support , - manufacturing a plurality of antennae on one face of a second support , - covering in a single operation said face of said first support and/or said face of said second support with an overall layer of a curable electrical conduction agent, - applying said first support against said second support so that said faces are opposite each other, and each antenna is opposite a respective electronic chip in order to assemble with the latter in a single operation and form a pair comprising said electronic chip and said antenna, - curing said electrical conduction agent so that said agent makes electrical connection between the microchips and antennae of each pair, and - cutting each chip/antenna pair of said assembly.
A cleaning accessory for a vacuum cleaner, comprising: a housing ; a rotatable cleaning brush rotatably mounted to the housing , having at least one flexible cleaning element projecting outwards from a side of the housing and the at least one flexible cleaning element is configured to rotate and engage with a surface to be cleaned; and a rotatable cleaning bar rotatably mounted within the housing , and the rotatable cleaning brush is rotatably coupled to the rotatable cleaning bar ; wherein at least a portion of the rotatable cleaning brush is seated within a drive mechanism coupled to the rotatable cleaning bar ; characterized in that the rotatable cleaning brush and the rotatable cleaning bar are arranged to rotate about a common rotation axis (A-A). a housing ; a rotatable cleaning brush rotatably mounted to the housing , having at least one flexible cleaning element projecting outwards from a side of the housing and the at least one flexible cleaning element is configured to rotate and engage with a surface to be cleaned; and a rotatable cleaning bar rotatably mounted within the housing , and the rotatable cleaning brush is rotatably coupled to the rotatable cleaning bar ; wherein at least a portion of the rotatable cleaning brush is seated within a drive mechanism coupled to the rotatable cleaning bar ; characterized in that the rotatable cleaning brush and the rotatable cleaning bar are arranged to rotate about a common rotation axis (A-A).
A process for metalizing a polyamide surface, the process comprising the steps: (i) pretreating the polyamide surface, the process comprising the steps: (a) providing an object having a polyamide surface; (b) treating the polyamide surface with a protease; and (c) removing the protease from the treated polyamide surface, thus providing an object having a protease treated polyamide surface; and (ii) metalizing the resulting pretreated polyamide surface using a palladium catalyst, wherein the metallization step (ii) is an electroless metallization. (i) pretreating the polyamide surface, the process comprising the steps: (a) providing an object having a polyamide surface; (b) treating the polyamide surface with a protease; and (c) removing the protease from the treated polyamide surface, thus providing an object having a protease treated polyamide surface; and (a) providing an object having a polyamide surface; (b) treating the polyamide surface with a protease; and (c) removing the protease from the treated polyamide surface, thus providing an object having a protease treated polyamide surface; and (ii) metalizing the resulting pretreated polyamide surface using a palladium catalyst,
A sample lysis and nucleic acid extraction apparatus , comprising: (i) a base for retaining a vortex generator assembly , the vortex generator assembly comprising: a sample holder comprising a body member forming a channel extending from a first end to an opposite second end of the sample holder, the sample holder further comprising a first plurality of wells extending in a downwardly direction from a floor of the channel , each well having an interior volume; and a sample holder cover comprising a base member comprising a floor extending from a first end to an opposite end of the sample holder cover and a second plurality of vibration rods extending in a downwardly direction from the floor of the base member into the interior volume of a corresponding one of the plurality of wells when the base member is inserted into the channel ; (ii) a rotating cam attached to a stepper motor and configured to impart vibrational movement to one or more of the second plurality of vibration rods ; and (iii) a horizontal actuator attached to the motor and configured to selectively impart horizontal movement of the motor along an x-axis repositioning the motor along vortex generator assemblies during sample processing. (i) a base for retaining a vortex generator assembly , the vortex generator assembly comprising: a sample holder comprising a body member forming a channel extending from a first end to an opposite second end of the sample holder, the sample holder further comprising a first plurality of wells extending in a downwardly direction from a floor of the channel , each well having an interior volume; and a sample holder cover comprising a base member comprising a floor extending from a first end to an opposite end of the sample holder cover and a second plurality of vibration rods extending in a downwardly direction from the floor of the base member into the interior volume of a corresponding one of the plurality of wells when the base member is inserted into the channel ; a sample holder comprising a body member forming a channel extending from a first end to an opposite second end of the sample holder, the sample holder further comprising a first plurality of wells extending in a downwardly direction from a floor of the channel , each well having an interior volume; and a sample holder cover comprising a base member comprising a floor extending from a first end to an opposite end of the sample holder cover and a second plurality of vibration rods extending in a downwardly direction from the floor of the base member into the interior volume of a corresponding one of the plurality of wells when the base member is inserted into the channel ; (ii) a rotating cam attached to a stepper motor and configured to impart vibrational movement to one or more of the second plurality of vibration rods ; and (iii) a horizontal actuator attached to the motor and configured to selectively impart horizontal movement of the motor along an x-axis repositioning the motor along vortex generator assemblies during sample processing.
A method performed by a multiradio controller having one or more interfaces , the one or more interfaces dedicated for conveying time-sensitive information between the multiradio controller and two or more radio modems , wherein the multiradio controller and the two or more radio modems are comprised within a single device, the method comprising: receiving synchronization information from the two or more radio modems through the one or more interfaces ; transmitting control information through the one or more interfaces to the two or more radio modems ; and in response to determining a potential conflict between the two or more radio modems , transmitting a disable command to at least one of the two or more radio modems through the one or more interfaces . receiving synchronization information from the two or more radio modems through the one or more interfaces ; transmitting control information through the one or more interfaces to the two or more radio modems ; and in response to determining a potential conflict between the two or more radio modems , transmitting a disable command to at least one of the two or more radio modems through the one or more interfaces .
An amine functional compound comprising: i. at least one segment consisting of at least one ether unit and at least one ester unit, wherein the ether units and ester units are connected by an ether link or an ester link, and wherein the sum of the number of ether units and ester units is at least three, and wherein the ether units and ester units are arranged in random order, and ii. at least one amine group ii. selected from a tertiary amine group, a salt of a tertiary amine group and a quaternary ammonium group, and wherein each segment i. is covalently linked to the at least one amine group ii. via a linkage comprising a urethane group and another group selected from a urethane group, a urea group, a biuret group and an allophanate group. i. at least one segment consisting of at least one ether unit and at least one ester unit, wherein the ether units and ester units are connected by an ether link or an ester link, and wherein the sum of the number of ether units and ester units is at least three, and wherein the ether units and ester units are arranged in random order, and ii. at least one amine group ii. selected from a tertiary amine group, a salt of a tertiary amine group and a quaternary ammonium group,
Probe , in particular for ultrasound, comprising: - a casing defining an interior of the probe , - one or more emitting and/or receiving elements for acoustic waves , arranged at a first end of the probe , - an interface unit connected to the emitting and/or receiving element , the interface unit being located within the interior of the casing , characterized in that the probe comprises: a sealed cooling chamber arranged within the interior of the casing , the interface unit being arranged at least partially in the cooling chamber or in contact with the cooling chamber , the cooling chamber being at least partially filled with a heat transfer liquid ; an acoustic-wave-blocking element arranged between the interface unit and said at least one emitting and/or receiving element for acoustic waves, the cooling chamber being in contact with the wave-blocking element , or the cooling chamber being defined by a rear face of the wave-blocking element and by an inner wall of the casing . - a casing defining an interior of the probe , - one or more emitting and/or receiving elements for acoustic waves , arranged at a first end of the probe , - an interface unit connected to the emitting and/or receiving element , the interface unit being located within the interior of the casing , characterized in that the probe comprises: a sealed cooling chamber arranged within the interior of the casing , the interface unit being arranged at least partially in the cooling chamber or in contact with the cooling chamber , the cooling chamber being at least partially filled with a heat transfer liquid ; an acoustic-wave-blocking element arranged between the interface unit and said at least one emitting and/or receiving element for acoustic waves, the cooling chamber being in contact with the wave-blocking element , or the cooling chamber being defined by a rear face of the wave-blocking element and by an inner wall of the casing . a sealed cooling chamber arranged within the interior of the casing , the interface unit being arranged at least partially in the cooling chamber or in contact with the cooling chamber , the cooling chamber being at least partially filled with a heat transfer liquid ; an acoustic-wave-blocking element arranged between the interface unit and said at least one emitting and/or receiving element for acoustic waves, the cooling chamber being in contact with the wave-blocking element , or the cooling chamber being defined by a rear face of the wave-blocking element and by an inner wall of the casing .
A test cartridge comprising: an input channel to receive a plasma sample containing platelets; a first sample chamber coupled to the input channel to receive the plasma sample containing platelets and adapted to enable imaging of the plasma sample containing platelets; a shear channel coupled to the first sample chamber to receive the plasma sample containing platelets and containing structural features to trap the platelets; a second sample chamber coupled to the shear channel to receive the plasma sample without the trapped platelets and adapted to enable imaging of the plasma sample; and an air permeable membrane coupled between the second sample chamber and ambient to prevent passage of the plasma sample past the air permeable membrane and to stop the flow of the plasma sample for the imaging of the plasma samples in the first and second sample chambers . an input channel to receive a plasma sample containing platelets; a first sample chamber coupled to the input channel to receive the plasma sample containing platelets and adapted to enable imaging of the plasma sample containing platelets; a shear channel coupled to the first sample chamber to receive the plasma sample containing platelets and containing structural features to trap the platelets; a second sample chamber coupled to the shear channel to receive the plasma sample without the trapped platelets and adapted to enable imaging of the plasma sample; and an air permeable membrane coupled between the second sample chamber and ambient to prevent passage of the plasma sample past the air permeable membrane and to stop the flow of the plasma sample for the imaging of the plasma samples in the first and second sample chambers .
Coke oven device for producing coke by coking coal or coal mixtures, the coke oven device being set up for minimized nitrogen oxide emission by internal thermal energy compensation by means of coke oven gases (G1, G4, G5) by measures internal to the coke oven device, having a plurality of twin heating passes , each having a heating passage through which gas flows and a waste gas-carrying heating passage through which waste gas flows downwards, which heating passages are in each case delimited from one another in pairs by a partition wall and are sealed off from a respective oven chamber (10.2), wherein the paired heating ducts are fluidically separated by means of an upper coupling passage (14.2) and by means of a lower coupling passage in each case for internal exhaust gas recirculation on an outer circular flow path (19.1), in each case at least one inlet from the following group being provided in the lower region on the floor (5.4) of the respective twin heating train: coke oven gas inlet , combustion air inlet , mixed gas inlet ; the respective partition wall having at least one further lower and upper coupling passage (14.2) which are arranged in a more central height position closer to the height center of the heating channels than the outer circular flow and are arranged for an additional inner circular flow upwards and downwards for forming an intermediate layer on an additional inner circular flow path (19.2, 19.3), characterized in that at least two of the inlets are arranged closer to the rotor walls on both sides of the coupling passages (14.2) in such a way that the respective exhaust gas recirculation passage (14.2) between the inlets is laterally enclosed and delimited from the inlets , respectively is arranged laterally between the inlets or delimited from the inlets , and at least three or four upwardly flowing partial flows are formed in the corresponding heating duct on flow paths which run at least approximately parallel to one another or at least next to one another at least over a height section in the height range from 0 to 1000 mm and lead to delayed mixing in this height section such that complete mixing only takes place above this height section.
A crankshaft for a reciprocating engine, the crankshaft comprising: journals (J) that define a central axis of rotation (Jc); crank pins (P) that are eccentric with respect to the journals (J); crank arms (A) connecting the journals (J) to the crank pins (P); and counterweights (W) integrated with the crank arms (A), wherein when the crankshaft is mounted in the reciprocating engine, a load (F) due to combustion pressure is applied to each of the crank pins (P) via a connecting rod in a direction from an axis of a piston pin to an axis (Pc) of the crank pin (P); wherein each of the crank arms (A) includes a recess in a surface adjacent to the journal (J), characterized in that the recess is disposed in a region inward of a peripheral region along an edge of the surface and extending along the peripheral region , the recess being asymmetric with respect to a crank arm centerline (Ac) connecting the axis (Pc) of the crank pin (P) to the axis (Jc) of the journal (J); and in that each of the crank arms (A) has a maximum flexural rigidity at a point of time when the load (F) onto the crank pin (P) due to the combustion pressure reaches a maximum (Fmax). journals (J) that define a central axis of rotation (Jc); crank pins (P) that are eccentric with respect to the journals (J); crank arms (A) connecting the journals (J) to the crank pins (P); and counterweights (W) integrated with the crank arms (A), wherein when the crankshaft is mounted in the reciprocating engine, a load (F) due to combustion pressure is applied to each of the crank pins (P) via a connecting rod in a direction from an axis of a piston pin to an axis (Pc) of the crank pin (P); wherein each of the crank arms (A) includes a recess in a surface adjacent to the journal (J), characterized in that the recess is disposed in a region inward of a peripheral region along an edge of the surface and extending along the peripheral region , the recess being asymmetric with respect to a crank arm centerline (Ac) connecting the axis (Pc) of the crank pin (P) to the axis (Jc) of the journal (J); and in that each of the crank arms (A) has a maximum flexural rigidity at a point of time when the load (F) onto the crank pin (P) due to the combustion pressure reaches a maximum (Fmax).
A process for cleaning a high pressure separator vessel in a polymerization reactor, the process comprising opening an outlet at a bottom of the high pressure separator vessel ; removing a flush plug from a fluid fitting above and adjacent to a top cover of the high pressure separator vessel , thus exposing a cleaning hole in the fluid fitting ; feeding a cord or cable through the cleaning hole into an interior of the high pressure separator vessel and down to the outlet ; affixing a rotatable cleaning nozzle to the cord or cable at the outlet ; supplying a pressurized liquid to the cleaning nozzle ; and gradually raising and/or lowering and rotating the cleaning nozzle through the inside of the high pressure separator vessel from the bottom to a top thereof, such that the pressurized liquid is directed into contact with an inner wall of the high pressure separator vessel and removes accumulated waste material.
Household refrigeration appliance, having a carcass and a door which can be hinged to said carcass , which, when the door is closed, delimit a heat-insulated refrigeration chamber, a refrigeration device for refrigerating the refrigeration chamber, an icemaker and/or water dispenser , a first electronic module for controlling/regulating the refrigeration device , a display/input module which can be used to adjust and/or display operating parameters associated with the first electronic module , and a bus system connecting the display/input module to the first electronic module , characterised by a second electronic module separate from the first electronic module for controlling/regulating the icemaker and/or water dispenser , wherein the display/input module can be used to actuate and/or adjust functions associated with the icemaker and/or water dispenser and the display/input module is connected to the second electronic module by way of the bus system , wherein the second electronic module is coupled using control technology to the first electronic module by way of the bus system , and shares the display/input module .