mhurhangee/patent-ind-claim-en huggingface dataset:
A material processing apparatus comprising a body and a second feed conveyor that is movable between a deployed state and a transport state, wherein the feed conveyor comprises a feed end , a discharge end and conveying means configured to carry material from said feed end to said discharge end, and wherein said discharge end is pivotably coupled to said body and, in said deployed state, said second feed conveyor extends from said body with said feed end being spaced apart from said body by said conveying means and, in said transport state, said second feed conveyor is folded with respect to the body, wherein the second feed conveyor is pivotably movable between said deployed state and said transport state by the pivotabe coupling of said discharge end, characterised in that said body includes a main feed conveyor configured to feed material to the apparatus and wherein, in the deployed state, said discharge end of said second feed conveyor is pivotably coupled to said body and is positioned over said main feed conveyor in order to discharge material onto said main feed conveyor.
An electrophotographic photosensitive member comprising a conductive substrate and a photosensitive layer , wherein the photosensitive layer is a single layer, the photosensitive layer contains at least a charge generating material and a compound represented by a general formula shown below: where in the general formula , R 1 represents an aryl group having a carbon number of at least 6 and no greater than 22 and optionally having an alkyl group having a carbon number of at least 1 and no greater than 10, an alkyl group having a carbon number of at least 3 and no greater than 20, an aralkyl group having a carbon number of at least 7 and no greater than 20, a cycloalkyl group having a carbon number of at least 3 and no greater than 20, or an alkoxy group having a carbon number of at least 1 and no greater than 6, and chemical groups R 2 each represent a halogen atom. R 1 represents an aryl group having a carbon number of at least 6 and no greater than 22 and optionally having an alkyl group having a carbon number of at least 1 and no greater than 10, an alkyl group having a carbon number of at least 3 and no greater than 20, an aralkyl group having a carbon number of at least 7 and no greater than 20, a cycloalkyl group having a carbon number of at least 3 and no greater than 20, or an alkoxy group having a carbon number of at least 1 and no greater than 6, and chemical groups R 2 each represent a halogen atom.
A tread extension device , comprising: a first tread extension ; a second tread extension , wherein a tread that has a first longitudinal end and a second longitudinal end is located between the first and second tread extensions , wherein a longitudinal direction of the tread extends from the first longitudinal end to the second longitudinal end ; a first connecting device that detachably connects the first tread extension to the first longitudinal end of the tread , wherein the first connecting device detachably engages both the first tread extension and the first longitudinal end of the tread ; and a second connecting device that detachably connects the second tread extension to the second longitudinal end of the tread , wherein the second connecting device detachably engages both the second tread extension and the second longitudinal end of the tread . a first tread extension ; a second tread extension , wherein a tread that has a first longitudinal end and a second longitudinal end is located between the first and second tread extensions , wherein a longitudinal direction of the tread extends from the first longitudinal end to the second longitudinal end ; a first connecting device that detachably connects the first tread extension to the first longitudinal end of the tread , wherein the first connecting device detachably engages both the first tread extension and the first longitudinal end of the tread ; and a second connecting device that detachably connects the second tread extension to the second longitudinal end of the tread , wherein the second connecting device detachably engages both the second tread extension and the second longitudinal end of the tread .
Suction head , intended for submersible use in the water of an artificial pool, having a body provided with a suction duct , and a suction pump placed inside the suction duct and comprising an electric motor coupled to a propeller , the rotation of the propeller producing suction along the suction duct between a suction mouth and an upper opening of said duct, characterised in that it comprises a central deflector placed between the motor and the propeller so as to prevent bulky debris from accumulating below said propeller.
A gas turbine engine comprising: a fan ; a fan drive gear system coupled to drive the fan about an engine central axis; a compressor section including a first compressor and a second compressor ; a turbine section including: a first turbine coupled to drive a first spool , the first spool being coupled at a first axial position (A 1 ) to a compressor hub that is coupled to drive the first compressor and the first spool being coupled at a second, different axial position (A 2 ) to a fan drive input shaft that is coupled to drive the fan drive gear system, at least one sensor target coupled to rotate with the first spool, and a second turbine coupled through a second spool to drive the second compressor; and characterized by a sensor probe operable together with the sensor target to determine a rotational speed of the first spool, the sensor probe being located at a third axial position (A 3 ) that is axially forward of the first axial position and axially aft of the second axial position. a fan ; a fan drive gear system coupled to drive the fan about an engine central axis; a compressor section including a first compressor and a second compressor ; a turbine section including: a first turbine coupled to drive a first spool , the first spool being coupled at a first axial position (A 1 ) to a compressor hub that is coupled to drive the first compressor and the first spool being coupled at a second, different axial position (A 2 ) to a fan drive input shaft that is coupled to drive the fan drive gear system, at least one sensor target coupled to rotate with the first spool, and a second turbine coupled through a second spool to drive the second compressor; and characterized by a sensor probe operable together with the sensor target to determine a rotational speed of the first spool, the sensor probe being located at a third axial position (A 3 ) that is axially forward of the first axial position and axially aft of the second axial position. a first turbine coupled to drive a first spool , the first spool being coupled at a first axial position (A 1 ) to a compressor hub that is coupled to drive the first compressor and the first spool being coupled at a second, different axial position (A 2 ) to a fan drive input shaft that is coupled to drive the fan drive gear system, at least one sensor target coupled to rotate with the first spool, and a second turbine coupled through a second spool to drive the second compressor; and characterized by a sensor probe operable together with the sensor target to determine a rotational speed of the first spool, the sensor probe being located at a third axial position (A 3 ) that is axially forward of the first axial position and axially aft of the second axial position.
Tool steel, in particular a hot-work steel, with the composition: 0.26 to 0.55 % by weight C or 0.25 to 1% by weight C and N and B in total; < 2 % by weight Cr; 0.5 to 10 % by weight Mo; 0 to 15 % by weight W; wherein the content of W and Mo is 1.8 to 15 % by weight in total; carbide-forming elements Ti, Zr, Hf, Nb, Ta with a content of 0 to 3 % by weight individually or in total; 0 to 4 % by weight V; 0 to 6 % by weight Co; 0 to 1.6 % by weight Si; 0 to 2 % by weight Mn; 0 to 2.99 % by weight Ni; 0 to 1 % by weight S; Remainder: iron and unavoidable impurities, wherein the unavoidable impurities include one or more of the elements Cu, P, Bi, Ca, As, Sn or Pb with a content of not more than1 % by weight, individually or in total, characterized in that the tool steel has a thermal conductivity at room temperature of more than 42 W/mK, preferably of more than 48 W/mK, in particular of more than 55 W/mK. 0.26 to 0.55 % by weight C or 0.25 to 1% by weight C and N and B in total; < 2 % by weight Cr; 0.5 to 10 % by weight Mo; 0 to 15 % by weight W; wherein the content of W and Mo is 1.8 to 15 % by weight in total; carbide-forming elements Ti, Zr, Hf, Nb, Ta with a content of 0 to 3 % by weight individually or in total; 0 to 4 % by weight V; 0 to 6 % by weight Co; 0 to 1.6 % by weight Si; 0 to 2 % by weight Mn; 0 to 2.99 % by weight Ni; 0 to 1 % by weight S; Remainder: iron and unavoidable impurities, wherein the unavoidable impurities include one or more of the elements Cu, P, Bi, Ca, As, Sn or Pb with a content of not more than1 % by weight, individually or in total,
Electrotechnical product , in particular not having a drive motor, comprising a housing and a radio module , wherein the radio module is designed to receive information from at least one external interface and/or to transmit information to at least one external interface, wherein the radio module is arranged in the housing of the electrotechnical product , and the electrotechnical product is supplied with energy by a first energy storage unit , in particular a battery pack; wherein the electrotechnical product has a second energy storage unit , characterized in that the housing of the electrotechnical product has a receptacle opening for receiving the second energy storage unit and/or the radio module ; wherein the receptacle opening is able to be closed off by a cover .
A dry standby liquid control system for a nuclear reactor, comprising: a standby vessel including dry powder, the dry powder including boron; a high pressure water supply in communication with the standby vessel via a first closed valve , the standby vessel being in communication with a reactor vessel via a second closed valve , characterised by the high pressure water supply being connected to an interior pipe system having a plurality of mixing holes within the standby vessel. a standby vessel including dry powder, the dry powder including boron; a high pressure water supply in communication with the standby vessel via a first closed valve , the standby vessel being in communication with a reactor vessel via a second closed valve , characterised by the high pressure water supply being connected to an interior pipe system having a plurality of mixing holes within the standby vessel.
A map processing method, comprising: obtaining (101; 201; 301) map data collected by a vehicle during driving of the vehicle; determining , when a plurality of semantic elements forming a loop is detected in the map data, a plurality of target semantic elements collected for a same environment object from the plurality of semantic elements forming the loop; and de-duplicating the map data based on the plurality of target semantic elements; wherein the plurality of target semantic elements comprises semantic elements for a road node comprising a first semantic element and a second semantic element that match each other, and said de-duplicating the map data based on the plurality of target semantic elements comprises: obtaining (203; 303) a topological relationship among the plurality of semantic elements in the map data; characterized in that the method further comprises: determining (204; 304), based on the topological relationship, a set of first semantic elements comprising one or more semantic elements connected to the first semantic element and a set of second semantic elements comprising one or more semantic elements connected to the second semantic element; and de-duplicating (205; 305) the map data based on the set of first semantic elements and the set of second semantic elements. obtaining (101; 201; 301) map data collected by a vehicle during driving of the vehicle; determining , when a plurality of semantic elements forming a loop is detected in the map data, a plurality of target semantic elements collected for a same environment object from the plurality of semantic elements forming the loop; and de-duplicating the map data based on the plurality of target semantic elements; wherein the plurality of target semantic elements comprises semantic elements for a road node comprising a first semantic element and a second semantic element that match each other, and said de-duplicating the map data based on the plurality of target semantic elements comprises: obtaining (203; 303) a topological relationship among the plurality of semantic elements in the map data; characterized in that the method further comprises: determining (204; 304), based on the topological relationship, a set of first semantic elements comprising one or more semantic elements connected to the first semantic element and a set of second semantic elements comprising one or more semantic elements connected to the second semantic element; and de-duplicating (205; 305) the map data based on the set of first semantic elements and the set of second semantic elements. determining (204; 304), based on the topological relationship, a set of first semantic elements comprising one or more semantic elements connected to the first semantic element and a set of second semantic elements comprising one or more semantic elements connected to the second semantic element; and de-duplicating (205; 305) the map data based on the set of first semantic elements and the set of second semantic elements.
A computer-implemented method comprising: Transforming, with a convolutional neural network , input bytes of an input into a sequence of chunks which comprises a sequence of convolutional features ; Examining , using a recurrent neural network in series with the convolutional neural network , at least some of the sequence of chunks to determine how to progress through the sequence of chunks, wherein the examining comprises the recurrent neural network deciding, based on a review of a given chunk of the sequence of chunks, whether to examine a next chunk in the sequence of chunks, to skip the next chunk, or to skip the next chunk and one or more additional chunks in the sequence of chunks before reviewing another chunk in the sequence of chunks; and Summarizing a state of the at least some of the chunks examined using the recurrent neural network to form an output indicative of a likelihood that the input includes malicious code. Transforming, with a convolutional neural network , input bytes of an input into a sequence of chunks which comprises a sequence of convolutional features ; Examining , using a recurrent neural network in series with the convolutional neural network , at least some of the sequence of chunks to determine how to progress through the sequence of chunks, wherein the examining comprises the recurrent neural network deciding, based on a review of a given chunk of the sequence of chunks, whether to examine a next chunk in the sequence of chunks, to skip the next chunk, or to skip the next chunk and one or more additional chunks in the sequence of chunks before reviewing another chunk in the sequence of chunks; and Summarizing a state of the at least some of the chunks examined using the recurrent neural network to form an output indicative of a likelihood that the input includes malicious code.
Method of manufacturing a photovoltaic product with a plurality of serially interconnected photovoltaic cells , comprising: - depositing (S1) a stack with a bottom electrode layer , a top electrode layer and a photovoltaic layer arranged between said first and said top electrode layer, the bottom electrode layer and the photovoltaic layer having an interface layer , the interface layer having a relatively high absorption for radiation of a predetermined wavelength as compared to that of the photovoltaic layer and that of the top electrode layer ; and - partitioning (S2) said stack into respective lateral portions associated with respective photovoltaic cells , with a boundary region between each photovoltaic cell and a subsequent photovoltaic cell ; - serially interconnecting (S3) mutually subsequent photovoltaic cells (1A. 1B) in a boundary region ; wherein said partitioning (S2) includes forming one or more trenches (20; 22; 23) extending through the top electrode layer and the photovoltaic layer to expose the bottom electrode layer , with at least an irradiation sub-step (S23A) and subsequent thereto a mechanical fragment removal sub-step (S23B), in which irradiation sub-step (S23A) an irradiation zone along a partitioning line is irradiated from a side facing the top electrode layer with a laser beam (LB) having the predetermined wavelength, the irradiation causing the material of the interface layer to vaporize, the resulting vapor pressure inducing a mechanical stress in the photovoltaic layer and of the top electrode layer causing their fragmentation within the irradiation zone, the irradiation being performed such that edges of the photovoltaic layer at the one or more trenches to be formed are free from re-solidified and phase-changed photovoltaic material, and in which mechanical fragment removal sub-step (S23B), the fragments formed in the irradiation sub-step are removed. - depositing (S1) a stack with a bottom electrode layer , a top electrode layer and a photovoltaic layer arranged between said first and said top electrode layer, the bottom electrode layer and the photovoltaic layer having an interface layer , the interface layer having a relatively high absorption for radiation of a predetermined wavelength as compared to that of the photovoltaic layer and that of the top electrode layer ; and - partitioning (S2) said stack into respective lateral portions associated with respective photovoltaic cells , with a boundary region between each photovoltaic cell and a subsequent photovoltaic cell ; - serially interconnecting (S3) mutually subsequent photovoltaic cells (1A. 1B) in a boundary region ;
A coupling device for connecting two lines, the coupling device comprising two coupling parts that can be coupled together and connected to one another so as to establish a connection between two lines in an axial direction in a reversible detachable way, so that the lines can be repeatedly connected to one another; wherein the connection of the coupling parts is sealed off from the environment by at least one seal ; wherein the two coupling parts are held together by a plurality of spring-loaded coupling members that are distributed circumferentially around the coupling device, such that the two coupling parts can be moved apart or buckled against spring forces which are acting by virtue of the spring loading, until the coupling members decouple once a certain distance has been exceeded, so that the coupling parts can separate; wherein the two coupling parts can be buckled through a bend angle of at least 0.5° until they separate; and wherein at least one of the coupling parts comprises a buoyancy body , so that at least one of the coupling parts can float in water. two coupling parts that can be coupled together and connected to one another so as to establish a connection between two lines in an axial direction in a reversible detachable way, so that the lines can be repeatedly connected to one another; wherein the connection of the coupling parts is sealed off from the environment by at least one seal ; wherein the two coupling parts are held together by a plurality of spring-loaded coupling members that are distributed circumferentially around the coupling device, such that the two coupling parts can be moved apart or buckled against spring forces which are acting by virtue of the spring loading, until the coupling members decouple once a certain distance has been exceeded, so that the coupling parts can separate; wherein the two coupling parts can be buckled through a bend angle of at least 0.5° until they separate; and wherein at least one of the coupling parts comprises a buoyancy body , so that at least one of the coupling parts can float in water.
A weft yarn transferring nozzle for an air jet loom , the weft yarn transferring nozzle being configured to discharge air to inject a weft yarn toward an inlet of a weft travel passage of a modified reed , the weft yarn transferring nozzle comprising: a thread guide having a weft passage through which the weft yarn is introduced and guided; and a nozzle body accommodating the thread guide and forming an air path through which the air flows in a direction of the weft passage along an outer peripheral surface of the thread guide , wherein the air path extends so as to overlap with a weft path on a downstream side of the weft passage , and wherein the thread guide has the weft passage having a circular section, and a tip portion that is cut along a surface (S, D1, D2) diagonal to a center axis line (L) of the weft passage , characterized in that the thread guide includes an indication portion indicating a direction of a normal line to the surface (S, D1, D2) in a portion of the thread guide exposed from the nozzle body . a thread guide having a weft passage through which the weft yarn is introduced and guided; and a nozzle body accommodating the thread guide and forming an air path through which the air flows in a direction of the weft passage along an outer peripheral surface of the thread guide , wherein the air path extends so as to overlap with a weft path on a downstream side of the weft passage , and wherein the thread guide has the weft passage having a circular section, and a tip portion that is cut along a surface (S, D1, D2) diagonal to a center axis line (L) of the weft passage , characterized in that the thread guide includes an indication portion indicating a direction of a normal line to the surface (S, D1, D2) in a portion of the thread guide exposed from the nozzle body .
A non-thermal refined nitrocarburized component, comprising a steel material of a base metal, the steel material having a chemical composition comprising: by mass%, C: 0.35 to 0.50%; Si: 0.10 to 0.35%; Mn: 2.3 to 2.8%; S: 0.10% or less; N: 0.0030 to 0.0250%; Cu: 0 to 1.0%; Mo: 0 to 0.3%; Ni: 0 to 0.5%; Ti: 0 to 0.020%; and the balance: Fe and impurities, wherein Fn1 shown by the below described Formula satisfies 3.10 ≤ Fn1 ≤ 6.00, and the impurities include P: 0.08% or less; Al: 0.05% or less; and Cr: less than 0.20%, and wherein at a stress concentrated region, an HV hardness according to JIS Z 2244:2009 at a position of 0.05 mm from a surface is 410 to 480, an HV hardness according to JIS Z 2244:2009 at a position of 1.0 mm from the surface is 200 or more, a compound-layer depth is 5μm or less, and a metal micro-structure of the base metal is a microstructure in which bainite accounts for 80% or more of the base metal micro-structure: Fn 1 = 0.316 C + 0.122 × 0.7 Si + 1 × 5.1 Mn − 1.12 × 0.364 Ni + 1 × 2.16 Cr + 1 × 3 Mo + 1 where an symbol of an element in Formula indicates a content of the element in steel in mass%.