mhurhangee/ep-ind-claims huggingface dataset:
Ventilation strip (10, 45, 60, 75, 85, 107, 110), in particular for steep roofs, having 1.1 at least two side strips (11, 12; 30, 31; 67, 81, 106, 118) running parallel to each other and 1.2 at least one essentially closed ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) running parallel to the side strips (11, 12; 30, 31; 67, 81, 106, 118), 1.2.1 wherein the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) has walls, which have through holes (20 - 25; 26, 27; 40; 50, 51; 70 - 74; 79, 80; 83, 84; 91, 92; 94, 95; 125 - 129), the ventilation strip (10, 45, 60 75, 85, 107, 110) can have two states, wherein the first state is the compressed state, in which the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) is not opened, and wherein the second state is the uncompressed state, in which the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) is opened and characterized in that the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) has first and second through holes (20 - 27; 35 - 38; 40; 50, 51; 70 - 74; 79, 80; 83, 84; 91 - 95; 125 - 129; 146 - 149) in opposite walls. 1.1 at least two side strips (11, 12; 30, 31; 67, 81, 106, 118) running parallel to each other and 1.2 at least one essentially closed ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) running parallel to the side strips (11, 12; 30, 31; 67, 81, 106, 118), 1.2.1 wherein the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) has walls, which have through holes (20 - 25; 26, 27; 40; 50, 51; 70 - 74; 79, 80; 83, 84; 91, 92; 94, 95; 125 - 129), the ventilation strip (10, 45, 60 75, 85, 107, 110) can have two states, wherein the first state is the compressed state, in which the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) is not opened, and wherein the second state is the uncompressed state, in which the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) is opened and characterized in that the at least one ventilation duct (15; 68, 69; 76, 86, 87; 108, 109; 120, 121; 176, 177; 187, 188) has first and second through holes (20 - 27; 35 - 38; 40; 50, 51; 70 - 74; 79, 80; 83, 84; 91 - 95; 125 - 129; 146 - 149) in opposite walls.
A method of producing a plurality of agglomerates for inclusion in an electrically responsive composite material, comprising the steps of: obtaining a plurality of electrically conductive or semi-conductive particles; mixing said plurality of electrically conductive or semi-conductive particles in a centrifugal mixer, said mixing step comprising operating said centrifugal mixer at a Froude number of between 220 and 1100; and adhering said plurality of electrically conductive or semi-conductive particles by adding a granulation binder and mixing said granulation binder with said plurality of electrically conductive or semi-conductive particles to form a plurality of agglomerates; characterised in that: each said step of obtaining, mixing and adhering said electrically conductive or semi-conductive particles pre-forms said plurality of agglomerates prior to introduction of said plurality of agglomerates into said electrically responsive composite material. obtaining a plurality of electrically conductive or semi-conductive particles; mixing said plurality of electrically conductive or semi-conductive particles in a centrifugal mixer, said mixing step comprising operating said centrifugal mixer at a Froude number of between 220 and 1100; and adhering said plurality of electrically conductive or semi-conductive particles by adding a granulation binder and mixing said granulation binder with said plurality of electrically conductive or semi-conductive particles to form a plurality of agglomerates; characterised in that: each said step of obtaining, mixing and adhering said electrically conductive or semi-conductive particles pre-forms said plurality of agglomerates prior to introduction of said plurality of agglomerates into said electrically responsive composite material.
A light-emitting device (34; 52; 53; 54) comprising a base (35; 35a), and a light-emitting diode (36; 36f; 36g; 36h; 36i; 36j; 36k) as a light-emitting element that is disposed on the base (35; 35a) and that emits primary light, wherein the light-emitting diode (36; 36f; 36g; 36h; 36i; 36j; 36k) comprises a plurality of semiconductor layers including a light-emitting layer, wherein an upper surface of the light-emitting diode (36; 36f; 36g; 36h; 36i; 36j; 36k) is covered with a cover portion, the cover portion including a first cover portion (37; 37a; 37b; 37c) that tightly covers at least a center portion of the upper surface of the light-emitting diode (36; 36f; 36g; 36h; 36i; 36j; 36k) and a second cover portion (38; 38a; 38b; 38c) that tightly surrounds a side face of the first cover portion (37; 37a; 37b; 37c), wherein upper surfaces of the first cover portion (37; 37a; 37b; 37c) and the second cover portion (38; 38a; 38b; 38c) are covered with a wavelength converting portion (39; 39a; 39b) that includes a wavelength converting material that absorbs part of the primary light and emits secondary light, wherein the cover portion is configured such that the second cover portion (38; 38a; 38b; 38c) is not above at least the center portion of the upper surface of the light-emitting diode (36; 36f; 36g; 36h; 36i; 36j; 36k), and wherein a refractive index of the second cover portion (38; 38a; 38b; 38c) is set higher than that of the first cover portion (37; 37a; 37b; 37c), thereby setting an intensity distribution of the primary light within the wavelength converting portion (39; 39a; 39b) such that a mixing ratio of the primary light and the secondary light that are emitted from a light extraction surface of the wavelength converting portion (39; 39a; 39b) is substantially uniform.
A fingerprint unlocking method, comprising: receiving a first fingerprint image; determining the number of target feature points of the first fingerprint image; acquiring a target adjustment parameter corresponding to the number of the target feature points according to a preset mapping relationship between the number of feature points and adjustment parameters; wherein the target adjustment parameter comprises an analog-to-digital converter offset, an ADC gain, and a pixel gain; receiving a second fingerprint image according to the target adjustment parameter; matching the second fingerprint image with a preset fingerprint template; characterized in that, the method further comprising, unlocking a terminal to display a page of an application when the second fingerprint image matches with the preset fingerprint template, wherein the page is selected from a page having a highest opening frequency and a page having longest display time. receiving a first fingerprint image; determining the number of target feature points of the first fingerprint image; acquiring a target adjustment parameter corresponding to the number of the target feature points according to a preset mapping relationship between the number of feature points and adjustment parameters; wherein the target adjustment parameter comprises an analog-to-digital converter offset, an ADC gain, and a pixel gain; receiving a second fingerprint image according to the target adjustment parameter; matching the second fingerprint image with a preset fingerprint template; characterized in that, the method further comprising, unlocking a terminal to display a page of an application when the second fingerprint image matches with the preset fingerprint template, wherein the page is selected from a page having a highest opening frequency and a page having longest display time.
Device for measuring an operating variable to be fitted onto a tyre, comprising: - an electronic circuit distributed over a first face (20.1) of an electronic board and which comprises a sensor; - a protective housing covering at least partially the electronic circuit; and - at least one first antenna wire (40.1, 40.2) having one end galvanically connected to the electronic circuit; wherein the housing comprises a lateral portion (12.1, 12.2) which projects substantially tangentially to a proximal end portion (41.1) of the first wire in accordance with a generatrix of said first wire; and characterized in that the first antenna wire integrally extends so as to project laterally from the housing. - an electronic circuit distributed over a first face (20.1) of an electronic board and which comprises a sensor; - a protective housing covering at least partially the electronic circuit; and - at least one first antenna wire (40.1, 40.2) having one end galvanically connected to the electronic circuit;
In a wireless communication system, a method for processing received data, the method comprising: transmitting a signal-to-noise ratio, SNR, for each of a plurality of transmission channels to a transmitter unit; receiving, from the transmitter unit, a stream of modulation symbols on each transmission channel, wherein the number of information bits per modulation symbol is determined based on the SNR of the transmission channel; generating a plurality of log likelihood ratio, LLR, streams, wherein each LLR stream is based on one of the received streams of modulation symbols; characterised by depuncturing each of the plurality of LLR streams by inserting erasures to obtain a plurality of depunctured LLR streams, wherein the number of erasures inserted into each stream is based on the SNR for the transmission channel; deinterleaving each of the plurality of depunctured LLR streams into a plurality of deinterleaved LLR streams (LLR(x'), LLR(y'), LLR(z')); and decoding via a Turbo decoder each of the plurality of deinterleaved LLR streams to obtain a plurality of information bit streams. transmitting a signal-to-noise ratio, SNR, for each of a plurality of transmission channels to a transmitter unit; receiving, from the transmitter unit, a stream of modulation symbols on each transmission channel, wherein the number of information bits per modulation symbol is determined based on the SNR of the transmission channel; generating a plurality of log likelihood ratio, LLR, streams, wherein each LLR stream is based on one of the received streams of modulation symbols; characterised by depuncturing each of the plurality of LLR streams by inserting erasures to obtain a plurality of depunctured LLR streams, wherein the number of erasures inserted into each stream is based on the SNR for the transmission channel; deinterleaving each of the plurality of depunctured LLR streams into a plurality of deinterleaved LLR streams (LLR(x'), LLR(y'), LLR(z')); and decoding via a Turbo decoder each of the plurality of deinterleaved LLR streams to obtain a plurality of information bit streams.
Method for authenticating a communication partner on a device, in which, in addition to a physical device implementation, at least one virtual device implementation (TD-FD1) assigned to the device is present, comprising the following steps: - receiving an access authorization for a communication partner in a first of these two device implementations, - inspecting the access authorization by way of the first device implementation, and - if the access authorization is deemed to be admissible, providing a credential for access to the second device implementation for the communication partner ST from the first device implementation to the communication partner, and - allowing access to the second device implementation of these two device implementations for the communication partner by way of the credential, characterized in that the credential is revoked or is not renewed when a communication connection between the first device implementation and the communication partner is ended. - receiving an access authorization for a communication partner in a first of these two device implementations, - inspecting the access authorization by way of the first device implementation, and - if the access authorization is deemed to be admissible, providing a credential for access to the second device implementation for the communication partner ST from the first device implementation to the communication partner, and - allowing access to the second device implementation of these two device implementations for the communication partner by way of the credential,
A method for source peer capacity-based Diameter load sharing, the method comprising: at a network element for processing Diameter messages received from a Diameter peer: requesting information regarding a Diameter message capacity requirement of the Diameter peer; receiving information regarding the Diameter message capacity requirement of the Diameter peer; using the received information to load share the processing; wherein the network element includes a plurality of message processors for processing Diameter messages and wherein using the received information to load share the processing includes using the received information to load share the processing among the plurality of message processors; and wherein usng the received information to load share the processing among the plurality of message processors includes using a message processor capacity table for maintaining, for each message processor of the network element a Diameter message capacity of the respective message processor. at a network element for processing Diameter messages received from a Diameter peer: requesting information regarding a Diameter message capacity requirement of the Diameter peer; receiving information regarding the Diameter message capacity requirement of the Diameter peer; using the received information to load share the processing; wherein the network element includes a plurality of message processors for processing Diameter messages and wherein using the received information to load share the processing includes using the received information to load share the processing among the plurality of message processors; and wherein usng the received information to load share the processing among the plurality of message processors includes using a message processor capacity table for maintaining, for each message processor of the network element a Diameter message capacity of the respective message processor. requesting information regarding a Diameter message capacity requirement of the Diameter peer; receiving information regarding the Diameter message capacity requirement of the Diameter peer; using the received information to load share the processing; wherein the network element includes a plurality of message processors for processing Diameter messages and wherein using the received information to load share the processing includes using the received information to load share the processing among the plurality of message processors; and wherein usng the received information to load share the processing among the plurality of message processors includes using a message processor capacity table for maintaining, for each message processor of the network element a Diameter message capacity of the respective message processor.
A manual transmission for vehicles, comprising a drive shaft and a device for axially adjusting a gearshift element, with: a gearshift shaft which is rotatable about an axis, an actuator body which is connected non-rotationally and also axially displaceably to the gearshift shaft and on a peripheral surface has at least two slotted guide portions designed as grooves, and also a linear actuator which is associated with the actuator body and has an actuable actuator pin which for axially displacing the actuator body can engage in the slotted guide portions, wherein each slotted guide portion has a coupling-in region for the actuator pin, an opposed coupling-out region for the actuator pin and also an actuating region which is bent in a curve lying therebetween in the peripheral direction for axially displacing the actuator body, wherein the coupling-in region and the coupling-out region in the peripheral direction of adjacent slotted guide portions are arranged at the same axial position, and wherein the gearshift element is a sliding sleeve of the manual transmission, characterised in that the drive shaft and the gearshift shaft are coupled by a transmission gear mechanism with a fixed transmission ratio. a gearshift shaft which is rotatable about an axis, an actuator body which is connected non-rotationally and also axially displaceably to the gearshift shaft and on a peripheral surface has at least two slotted guide portions designed as grooves, and also a linear actuator which is associated with the actuator body and has an actuable actuator pin which for axially displacing the actuator body can engage in the slotted guide portions, wherein each slotted guide portion has a coupling-in region for the actuator pin, an opposed coupling-out region for the actuator pin and also an actuating region which is bent in a curve lying therebetween in the peripheral direction for axially displacing the actuator body, wherein the coupling-in region and the coupling-out region in the peripheral direction of adjacent slotted guide portions are arranged at the same axial position, and wherein the gearshift element is a sliding sleeve of the manual transmission, characterised in that the drive shaft and the gearshift shaft are coupled by a transmission gear mechanism with a fixed transmission ratio.
A knob cap for a high-pressure tank, the knob cap comprising: a coupling groove portion corresponding to a knob of a liner of the high-pressure tank formed in a lower surface of a body; a peripheral wing portion extending outward in a lower end of an outer circumferential surface of the body to be in contact with a surface of the liner; a thickness conversion portion formed in the outer circumferential surface of the body to change a thickness between a center line and the outer circumferential surface; and a hollow fixing groove formed in a center of the upper surface of the body, a fixing shaft being able to be coupled to the hollow fixing groove when performing a filament winding process, characterised in one or more inner grooves extending downward from an upper surface of the body and surrounding the hollow fixing groove. a coupling groove portion corresponding to a knob of a liner of the high-pressure tank formed in a lower surface of a body; a peripheral wing portion extending outward in a lower end of an outer circumferential surface of the body to be in contact with a surface of the liner; a thickness conversion portion formed in the outer circumferential surface of the body to change a thickness between a center line and the outer circumferential surface; and a hollow fixing groove formed in a center of the upper surface of the body, a fixing shaft being able to be coupled to the hollow fixing groove when performing a filament winding process, characterised in one or more inner grooves extending downward from an upper surface of the body and surrounding the hollow fixing groove.
A sparcap (40,44) for a wind turbine rotor blade, said sparcap comprising: a first carbon material layer coupled to an inner surface of the wind turbine rotor blade, said first carbon material layer extending along at least a portion of a length of the wind turbine rotor blade; a plurality of separated, non contiguous core material sections coupled to said first carbon material layer, said core material sections positioned along the length of the wind turbine rotor blade with respect to buckling prone regions of the wind turbine rotor blade; and a second carbon material layer covering said core material and coupled to at least one of said first carbon material layer and said core material, said second carbon material layer extending along at least a portion of the length of the wind turbine rotor blade. a first carbon material layer coupled to an inner surface of the wind turbine rotor blade, said first carbon material layer extending along at least a portion of a length of the wind turbine rotor blade; a plurality of separated, non contiguous core material sections coupled to said first carbon material layer, said core material sections positioned along the length of the wind turbine rotor blade with respect to buckling prone regions of the wind turbine rotor blade; and a second carbon material layer covering said core material and coupled to at least one of said first carbon material layer and said core material, said second carbon material layer extending along at least a portion of the length of the wind turbine rotor blade.
A blow molding apparatus including a blow molding section for blow-molding a preform to form a hollow container, comprising: a continuous transport section provided with a loop-shaped transport path for continuously transporting the preform; an intermittent transport section for intermittently transporting the preform to the blow molding section; and a delivery section for holding the preform being transported on the transport path, and delivering the preform to the intermittent transport section, wherein the intermittent transport section is provided above the continuous transport section and apart from the continuous transport section, wherein the delivery section is equipped with an elevating device for raising the preform when the delivery section delivers the preform from the continuous transport section to the intermittent transport section, the apparatus being characterized in that the delivery section is equipped with cooling means for cooling the preform locally by jetting a cooling fluid from a first nozzle member onto an outer surface of the preform, and the cooling means cools the preform while the preform is being raised by the elevating device. a continuous transport section provided with a loop-shaped transport path for continuously transporting the preform; an intermittent transport section for intermittently transporting the preform to the blow molding section; and a delivery section for holding the preform being transported on the transport path, and delivering the preform to the intermittent transport section, wherein the intermittent transport section is provided above the continuous transport section and apart from the continuous transport section, wherein the delivery section is equipped with an elevating device for raising the preform when the delivery section delivers the preform from the continuous transport section to the intermittent transport section, the apparatus being characterized in that the delivery section is equipped with cooling means for cooling the preform locally by jetting a cooling fluid from a first nozzle member onto an outer surface of the preform, and the cooling means cools the preform while the preform is being raised by the elevating device.