mhurhangee/ep-ind-claims huggingface dataset:
A position lamp mounting structure for a motorcycle, which is provided separately from a support structure for a headlamp, the position lamp mounting structure comprising: a top bridge to support an upper portion of a front fork assembly; a handle holder; a lamp holder provided in the handle holder; and a lamp unit fitted to the lamp holder, the lamp unit having a position lamp built therein; characterized in that the handle holder is configured to sandwich and clamp a handlebar between it and the top bridge. a top bridge to support an upper portion of a front fork assembly; a handle holder; a lamp holder provided in the handle holder; and a lamp unit fitted to the lamp holder, the lamp unit having a position lamp built therein;
A method for determining a control channel resource, comprising: detecting (S110, S210) a downlink control channel that carries scheduling information of a downlink data channel from a base station, wherein the downlink control channel is formed by at least one control channel logical element, and the at least one control channel logical element corresponding to a terminal apparatus is mapped to one antenna port, wherein the antenna port is a demodulation reference signal, DMRS, antenna port; acquiring (S120, S220) antenna port information of a first antenna port corresponding to a first control channel logical element of a successfully detected downlink control channel, an offset, and sequence number information of the first control channel logical element, wherein the offset is user equipment specific and the offset is semi-statically configured by a high layer; and determining (S130, S230) a first control channel resource according to the sequence number information, the antenna port information and the offset, wherein the first control channel resource is used to feed back acknowledgment, ACK/non-acknowledgment, NACK, information with respect to a downlink data channel corresponding to the successfully detected downlink control channel. detecting (S110, S210) a downlink control channel that carries scheduling information of a downlink data channel from a base station, wherein the downlink control channel is formed by at least one control channel logical element, and the at least one control channel logical element corresponding to a terminal apparatus is mapped to one antenna port, wherein the antenna port is a demodulation reference signal, DMRS, antenna port; acquiring (S120, S220) antenna port information of a first antenna port corresponding to a first control channel logical element of a successfully detected downlink control channel, an offset, and sequence number information of the first control channel logical element, wherein the offset is user equipment specific and the offset is semi-statically configured by a high layer; and determining (S130, S230) a first control channel resource according to the sequence number information, the antenna port information and the offset, wherein the first control channel resource is used to feed back acknowledgment, ACK/non-acknowledgment, NACK, information with respect to a downlink data channel corresponding to the successfully detected downlink control channel.
Apparatus for the quantitative analysis of an analyte in a sample, comprising (i) a solid phase; and (ii) a detector, wherein the surface of the solid phase comprises: (a) a first position for sample application; and (b) a second position, distant from the first position, wherein a first molecule that binds to the analyte and is capable of releasing a detectable species is either deposited at the first position or is added to the sample prior to application to the solid phase, and wherein a second molecule that binds to the analyte is immobilised at the second position, and wherein an enzyme is co-locatedly immobilised with the immobilised molecule at the second position, and wherein the detector is located in close proximity to the immobilised molecule at the second position, wherein a substrate for the enzyme is either normally present in the sample, is added to the sample prior to application to the solid phase, or is deposited at the first position on the solid phase prior to sample application, and wherein interaction between the enzyme and the substrate results in release of a detectable species from the first molecule. (i) a solid phase; and (ii) a detector, (a) a first position for sample application; and (b) a second position, distant from the first position,
Screw-thread part, in particular screw, bolt, nut or grub screw, having a screw thread that at least to some extent has a coating which serves to secure the screw thread after screw-connection to a mating screw thread, wherein the coating comprises a UV lacquer and there are microcapsules embedded into the UV lacquer, where at least a portion of the microcapsules comprises a polymerizable adhesive and another portion of the microcapsules comprises a hardener, characterized in that the microcapsules comprising adhesive comprise unsaturated (meth)acrylate or unsaturated polyesters and the hardener is a peroxide.
Method for managing an air/water exchange module for regulating the temperature of the intake gases of a combustion engine, the said module comprising an air/water exchanger and branching means enabling the intake gases to bypass the exchanger, characterized in that the branching means are controlled such that the intake gases are transmitted at least in part into the exchanger when the temperature T1 of the intake gases is below the temperature T3 of the water of the air/water exchanger.
A portable pump including: a reciprocating air compressor arrangement including: a crank that drives a connecting rod and a piston within a cylinder, the connecting rod having a first end and a second end, the first end of the connecting rod connected to the crank and the second end of the connecting rod connected to the piston, with the crank provided to actuate the piston in a reciprocating motion within and relative to the cylinder so as to compress air within the cylinder; an electric motor having a drive shaft mounted to the crank, with the drive shaft rotatable about a drive shaft axis; a control unit in electrical communication with the electric motor to control operation of the pump; a power supply in electrical communication with the control unit to supply power to the control unit and electric motor; the electric motor, the reciprocating air compressor arrangement, the control unit and the power supply each contained within a common housing; and an outlet fluidly connected to the reciprocating air compressor arrangement for fluidly engaging with an object to be pumped, characterised in that the drive shaft axis is at least substantially coaxially aligned with an axis of rotation of the crank, and the reciprocating air compressor arrangement has an inner cylinder diameter ( d, in mm), a stroke ( s, in mm) and a piston clearance at top dead centre ( c, in mm), which meet the following design criteria: 1500 < d 2 s − 4.2 c < 3800 wherein the piston clearance at top dead centre is a clearance between a top of the air compressor cylinder and the piston. a reciprocating air compressor arrangement including: a crank that drives a connecting rod and a piston within a cylinder, the connecting rod having a first end and a second end, the first end of the connecting rod connected to the crank and the second end of the connecting rod connected to the piston, with the crank provided to actuate the piston in a reciprocating motion within and relative to the cylinder so as to compress air within the cylinder; an electric motor having a drive shaft mounted to the crank, with the drive shaft rotatable about a drive shaft axis; a control unit in electrical communication with the electric motor to control operation of the pump; a power supply in electrical communication with the control unit to supply power to the control unit and electric motor; the electric motor, the reciprocating air compressor arrangement, the control unit and the power supply each contained within a common housing; and an outlet fluidly connected to the reciprocating air compressor arrangement for fluidly engaging with an object to be pumped, characterised in that the drive shaft axis is at least substantially coaxially aligned with an axis of rotation of the crank, and the reciprocating air compressor arrangement has an inner cylinder diameter ( d, in mm), a stroke ( s, in mm) and a piston clearance at top dead centre ( c, in mm), which meet the following design criteria: 1500 < d 2 s − 4.2 c < 3800 wherein the piston clearance at top dead centre is a clearance between a top of the air compressor cylinder and the piston.
An apparatus (10A, 10B, 30A, 30B) for removing dead volume of stagnant fluid in a sensor assembly, the apparatus comprising: a first reservoir (22, 22A, 22B, 42, 42A, 42B) coupled to a first pressure transducer (18, 18A, 18B, 38, 38A, 38B) and having a port (60, 60A) in fluid communication at a location in a sampled flow path; a second reservoir (24, 24A, 24B, 44, 44A, 44B) coupled to a second pressure transducer (20, 20A, 20B, 40, 40A, 40B), fluidly coupled to the first reservoir (22, 22A, 22B, 42, 42A, 42B) through a flow through path (26, 26A, 26B, 46, 46A, 46B), and having another port (62, 62A) in fluid communication at another location of another sampled flow path; and a restrictor disposed in the flow through path (26, 26A, 26B, 46, 46A, 46B); wherein a volume of the first reservoir (22, 22A, 22B, 42, 42A, 42B) or a volume of the second reservoir (24, 24A, 24B, 44, 44A, 44B) is determined based on a bleed down time, wherein the bleed down time is associated to the pressure decay in the corresponding reservoir. a first reservoir (22, 22A, 22B, 42, 42A, 42B) coupled to a first pressure transducer (18, 18A, 18B, 38, 38A, 38B) and having a port (60, 60A) in fluid communication at a location in a sampled flow path; a second reservoir (24, 24A, 24B, 44, 44A, 44B) coupled to a second pressure transducer (20, 20A, 20B, 40, 40A, 40B), fluidly coupled to the first reservoir (22, 22A, 22B, 42, 42A, 42B) through a flow through path (26, 26A, 26B, 46, 46A, 46B), and having another port (62, 62A) in fluid communication at another location of another sampled flow path; and a restrictor disposed in the flow through path (26, 26A, 26B, 46, 46A, 46B); wherein a volume of the first reservoir (22, 22A, 22B, 42, 42A, 42B) or a volume of the second reservoir (24, 24A, 24B, 44, 44A, 44B) is determined based on a bleed down time, wherein the bleed down time is associated to the pressure decay in the corresponding reservoir.
A method for recycling a substrate, especially a wafer, said substrate having a separation profile including a surface and a collar, wherein an interface, resulting from a previous implantation step and having a weakened material, is provided between said surface and said collar, said separation profile resulting from a previous separation step, and is further planarised for obtaining a plane surface, the method comprises a step of severing of the collar from said surface at said interface in a separate step, characterized in that the separate step comprises directing a jet of water and/or air, and/or another fluid to the collar and at least impinging on the interface between the surface and the collar.
A method of preparing a positive electrode, the method comprising: forming a solid electrolyte by mixing a lithium salt and a polymer for a solid electrolyte in a dry atmosphere; forming a dry mixture by stirring after adding a conductive agent and a positive electrode active material to the solid electrolyte in a dry atmosphere; and pressing after coating a current collector with the dry mixture; wherein the method further comprises applying a shear force of 20 N to 150 N to the dry mixture. forming a solid electrolyte by mixing a lithium salt and a polymer for a solid electrolyte in a dry atmosphere; forming a dry mixture by stirring after adding a conductive agent and a positive electrode active material to the solid electrolyte in a dry atmosphere; and pressing after coating a current collector with the dry mixture; wherein the method further comprises applying a shear force of 20 N to 150 N to the dry mixture.
A method of selecting a geographical data file for voice destination entry, comprising, by a processor: determining a VDE-type associated with a VDE input, the VDE-type determined based on presence or absence in the VDE of leading words or leading word suffixes indicating a geographical region; determining a switching confidence factor associated with the VDE input, the switching confidence factor calculated based on one of (i) word probability pairs for words matching the VDE included in a first data file, or (ii) the determined VDE-type; based at least on the determined VDE-type and the switching confidence factor, retrieving a first number of candidates from the first data file, and retrieving a second number of candidates from a second data file, wherein geographical items are separated into separate data files, organized by relevant geographical regions. determining a VDE-type associated with a VDE input, the VDE-type determined based on presence or absence in the VDE of leading words or leading word suffixes indicating a geographical region; determining a switching confidence factor associated with the VDE input, the switching confidence factor calculated based on one of (i) word probability pairs for words matching the VDE included in a first data file, or (ii) the determined VDE-type; based at least on the determined VDE-type and the switching confidence factor, retrieving a first number of candidates from the first data file, and retrieving a second number of candidates from a second data file, wherein geographical items are separated into separate data files, organized by relevant geographical regions.
An electrical radiator type heating appliance intended to be electrically connected to an electric power supply source, comprising a case constituted at least partially by a metallic frame, at least one radiating heater body (12, 12a, 12b) implanted in the metallic frame, said heating appliance being characterized in that it comprises at least one first shielded element constituted by a first resistive body type adapted to generate heat when it is powered by an alternating electric current, and at least one second shielded element constituted by a second resistive body type adapted to generate heat when it is powered by a direct electric current, said at least one first shielded element and said at least one second shielded element being embedded in the material (17, 17a, 17b) of said at least one radiating heater body (12, 12a, 12b).
Guide gib for a deep drilling tool having at least one sliding surface, wherein a lubricating groove is arranged in the region of a contact zone of the sliding surface, characterised in that the lubricating groove is implemented as a closed pocket.
A method of forming a ceramic article comprising: forming a pre-ceramic polymer article within a mold tool; performing a first pyrolizing step on the pre-ceramic polymer article to form a ceramic article; performing at least one pre-heat treatment polymer infiltration and pyrolizing cycle on the ceramic article; performing an initial heat treatment cycle of the ceramic article after the at least one pre-heat treatment PIP cycle; and performing a densification process after the at least one initial heat treatment process; wherein the densification process is repeated at least two times and comprises two PIP cycles followed by a heat treatment cycle. forming a pre-ceramic polymer article within a mold tool; performing a first pyrolizing step on the pre-ceramic polymer article to form a ceramic article; performing at least one pre-heat treatment polymer infiltration and pyrolizing cycle on the ceramic article; performing an initial heat treatment cycle of the ceramic article after the at least one pre-heat treatment PIP cycle; and performing a densification process after the at least one initial heat treatment process; wherein the densification process is repeated at least two times and comprises two PIP cycles followed by a heat treatment cycle.
A method comprising: receiving, by a wireless device, at least one radio resource control, RRC, message comprising a field indicating a starting symbol for an enhanced physical downlink control channel, ePDCCH; and receiving ePDCCH signal in a subframe, wherein: the ePDCCH starts from the starting symbol when the subframe is a full subframe; and the ePDCCH starts from the starting symbol plus a non-zero offset symbol value when the subframe is a partial subframe. receiving, by a wireless device, at least one radio resource control, RRC, message comprising a field indicating a starting symbol for an enhanced physical downlink control channel, ePDCCH; and receiving ePDCCH signal in a subframe, wherein: the ePDCCH starts from the starting symbol when the subframe is a full subframe; and the ePDCCH starts from the starting symbol plus a non-zero offset symbol value when the subframe is a partial subframe. the ePDCCH starts from the starting symbol when the subframe is a full subframe; and the ePDCCH starts from the starting symbol plus a non-zero offset symbol value when the subframe is a partial subframe.
A vane arc segment for a gas turbine engine, comprising: an airfoil section having an airfoil wall defining a leading edge, a trailing edge, a pressure side, a suction side, and first and second ends (62e, 62f) defining a span length there between, the airfoil section having an internal cavity and a rib dividing the internal cavity into a forward cavity and an aft cavity, the forward cavity bound by the leading edge; a spar supporting the airfoil section, the spar having a leg extending through the forward cavity, the leg being spaced from the airfoil wall such that there is a gap there between, the spar having an internal through-passage, wherein the walls of the spar are solid such that in the airfoil section the through-passage is fluidly isolated from the gap; and a baffle in the internal cavity dividing the gap into a plenum space between the leg and the baffle and an impingement space between the baffle and the airfoil wall, the baffle having impingement holes that connect the plenum space and the impingement space and that are directed toward the airfoil wall to provide cooling thereof, the impingement space being of substantially uniform thickness along at least a portion of the span length and the plenum space being of non-uniform thickness along a different portion of the span length. an airfoil section having an airfoil wall defining a leading edge, a trailing edge, a pressure side, a suction side, and first and second ends (62e, 62f) defining a span length there between, the airfoil section having an internal cavity and a rib dividing the internal cavity into a forward cavity and an aft cavity, the forward cavity bound by the leading edge; a spar supporting the airfoil section, the spar having a leg extending through the forward cavity, the leg being spaced from the airfoil wall such that there is a gap there between, the spar having an internal through-passage, wherein the walls of the spar are solid such that in the airfoil section the through-passage is fluidly isolated from the gap; and a baffle in the internal cavity dividing the gap into a plenum space between the leg and the baffle and an impingement space between the baffle and the airfoil wall, the baffle having impingement holes that connect the plenum space and the impingement space and that are directed toward the airfoil wall to provide cooling thereof, the impingement space being of substantially uniform thickness along at least a portion of the span length and the plenum space being of non-uniform thickness along a different portion of the span length.
Toroidal core current transformer for installation into a metal-encapsulated, compressed gas-insulated high-voltage switchgear installation, having a tubular encapsulation, wherein the secondarily wound toroidal cores (3, 4, 5) are arranged outside the tubular encapsulation, wherein a tubular insulating part is provided as the support for the toroidal cores (3, 4, 5), the toroidal cores (3, 4, 5) being pushed onto the said tubular insulating part, wherein two metallic flanges (8, 9) are connected to the tubular insulating part, wherein at least one of the two metallic flanges (8, 9) is subsequently connected to the tubular insulating part in a gas-tight manner, and wherein a tubular metallic conductor, which can be connected to the flanges (8, 9) on both sides, or a plurality of metallic conductor parts are provided in the region of the tubular insulating part radially outside the toroidal cores (3, 4, 5) for the purpose of returning current, characterized in that the tubular insulating part is composed of a glass fibre-reinforced plastic, and the toroidal cores (3, 4, 5) are fastened to the tubular insulating part by means of an adhesive insulating layer.
A method for locating a substrate, the method comprising: driving a picker including a picker tip towards the substrate; providing at least one output value during the driving step; performing a reference drive, wherein the picker is driven past the substrate, and obtaining at least one reference output value or range of values during the reference drive step; contacting the substrate with the picker tip, providing a contact value during the contacting step; overtraveling the substrate with the picker tip, wherein overtraveling is the continued driving of the picker including the picker tip even after the picker including the picker tip has contacted the substrate; and providing at least one overtravel value during the overtraveling step; and locating the substrate by calculating the difference between the at least one reference output value or range of values and the at least one overtravel value; wherein the location of the substrate is at a point where the difference is equal to or greater than a threshold; wherein the at least one output value is due to an expected change in distance between the picker tip and the substrate during the driving step, wherein the contact value is due to a less-than-expected change in distance between the picker tip and the substrate during the contacting step. driving a picker including a picker tip towards the substrate; providing at least one output value during the driving step; performing a reference drive, wherein the picker is driven past the substrate, and obtaining at least one reference output value or range of values during the reference drive step; contacting the substrate with the picker tip, providing a contact value during the contacting step; overtraveling the substrate with the picker tip, wherein overtraveling is the continued driving of the picker including the picker tip even after the picker including the picker tip has contacted the substrate; and providing at least one overtravel value during the overtraveling step; and locating the substrate by calculating the difference between the at least one reference output value or range of values and the at least one overtravel value; wherein the location of the substrate is at a point where the difference is equal to or greater than a threshold; wherein the at least one output value is due to an expected change in distance between the picker tip and the substrate during the driving step, wherein the contact value is due to a less-than-expected change in distance between the picker tip and the substrate during the contacting step.