mhurhangee/patent-ind-claim-en huggingface dataset:
A zero-heat-flux temperature measurement system for measuring deep tissue temperature using a probe with first and second flexible substrate layers sandwiching a layer of thermally insulating material and a tab with electrical contact pads , in which a heater and a first thermal sensor and a programmable memory device are disposed on the first substrate layer, and a second thermal sensor is disposed on the second substrate layer, the system including: a controller with a signal connector jack and an emulation unit ; a probe signal interface cable with first and second ends; a first connector attached to the first end of the probe signal interface cable for detachably connecting to the tab ; and, a second connector attached to the second end of the probe signal interface cable for being inserted into and removed from the signal connector jack in the controller; in which the probe signal interface cable and the first and second connectors are a single integrated element separate from the probe, wherein the emulation unit is operative to produce an output signal at an output jack that conforms to a common signal interface for electronic medical equipment, and in which the controller includes probe control logic , and the zero-heat-flux temperature system further includes an information switch having a first state in which the information switch is operative to connect thermistor signals from the probe signal interface cable to the probe control logic and a second state in which the information switch is operative to connect programmable memory device information from the probe signal interface cable to the control logic. a controller with a signal connector jack and an emulation unit ; a probe signal interface cable with first and second ends; a first connector attached to the first end of the probe signal interface cable for detachably connecting to the tab ; and, a second connector attached to the second end of the probe signal interface cable for being inserted into and removed from the signal connector jack in the controller; in which the probe signal interface cable and the first and second connectors are a single integrated element separate from the probe, wherein the emulation unit is operative to produce an output signal at an output jack that conforms to a common signal interface for electronic medical equipment, and in which the controller includes probe control logic , and the zero-heat-flux temperature system further includes an information switch having a first state in which the information switch is operative to connect thermistor signals from the probe signal interface cable to the probe control logic and a second state in which the information switch is operative to connect programmable memory device information from the probe signal interface cable to the control logic.
A method for backhaul inter-node communication between a first backhaul node and a second backhaul node, the method comprising: computing a beamforming weight matrix W; and the first backhaul node using the beamforming weight matrix W to transmit and/or receive data to and/or from the second backhaul node, characterised in that the beamforming matrix W is computed as the inverse of a weighted channel estimate matrix Ȟ = ρ ∘ Ĥ, such that W = Ȟ -1 = (ρ ∘ Ĥ ) -1 , where Ĥ is a channel estimate matrix and ρ is a weighting factor matrix such that ρ = 1 ρ ⋯ ρ N tx − 1 ⋮ ⋮ ⋱ ⋮ 1 ρ ⋯ ρ N tx − 1 where ρ has dimension N rx by N tx , where N rx is the number of receive antennas and N tx is the number of transmit antennas, where N tx , = N rx , and ρ is a scalar between 0 and 1, not taking the values of 0 and 1, and where ∘ denotes a Hadamard matrix product. computing a beamforming weight matrix W; and the first backhaul node using the beamforming weight matrix W to transmit and/or receive data to and/or from the second backhaul node, characterised in that the beamforming matrix W is computed as the inverse of a weighted channel estimate matrix Ȟ = ρ ∘ Ĥ, such that W = Ȟ -1 = (ρ ∘ Ĥ ) -1 , where Ĥ is a channel estimate matrix and ρ is a weighting factor matrix such that ρ = 1 ρ ⋯ ρ N tx − 1 ⋮ ⋮ ⋱ ⋮ 1 ρ ⋯ ρ N tx − 1 where ρ has dimension N rx by N tx , where N rx is the number of receive antennas and N tx is the number of transmit antennas, where N tx , = N rx , and ρ is a scalar between 0 and 1, not taking the values of 0 and 1, and where ∘ denotes a Hadamard matrix product.
A wind turbine steel tower portion (200, 200', 200", 300, 400) for a wind turbine tower , comprising - a first wind turbine steel tower ring segment with a first vertical joint side , - a second wind turbine steel tower ring segment with a second vertical joint side , - a bracket element (250, 250', 250", 350, 450, 514, 524) which is arranged at a joint and which is connected to the first wind turbine steel tower ring segment and to the second wind turbine steel tower ring segment , - wherein the first wind turbine steel tower ring segment , with the first vertical joint side , and the second wind turbine steel tower ring segment , with the second vertical joint side , are arranged against one another at the joint , and- the bracket element (250, 250', 250", 350, 450, 514, 524) has a connection element (260, 260', 260", 262, 262', 262") which projects from the bracket element (250, 250', 250", 350, 450, 514, 524) and which serves for the arrangement of functional elements characterized in that - the connection element (260, 260', 260", 262, 262', 262") is connected to the bracket element (250, 250', 250", 350, 450, 514, 524) cohesively or by means of at least one fastening element . - a first wind turbine steel tower ring segment with a first vertical joint side , - a second wind turbine steel tower ring segment with a second vertical joint side , - a bracket element (250, 250', 250", 350, 450, 514, 524) which is arranged at a joint and which is connected to the first wind turbine steel tower ring segment and to the second wind turbine steel tower ring segment , - wherein the first wind turbine steel tower ring segment , with the first vertical joint side , and the second wind turbine steel tower ring segment , with the second vertical joint side , are arranged against one another at the joint , and- the bracket element (250, 250', 250", 350, 450, 514, 524) has a connection element (260, 260', 260", 262, 262', 262") which projects from the bracket element (250, 250', 250", 350, 450, 514, 524) and which serves for the arrangement of functional elements characterized in that - the connection element (260, 260', 260", 262, 262', 262") is connected to the bracket element (250, 250', 250", 350, 450, 514, 524) cohesively or by means of at least one fastening element .
Boot for motorcyclist comprising: - an upper portion integrally connected to an outsole ; the upper portion comprising a leg portion and a foot portion integrally connected each other through an ankle portion ; the leg portion comprising a shin portion and a calf portion ; and the foot portion comprising a heel portion and a vamp portion ; - a curved coverture configured to cover an outer side of the leg portion of the boot ; said curved coverture being shaped as airfoil and comprising a leading edge arranged in correspondence of the shin portion and a trailing edge (11") arranged in correspondence of the calf portion . - an upper portion integrally connected to an outsole ; the upper portion comprising a leg portion and a foot portion integrally connected each other through an ankle portion ; the leg portion comprising a shin portion and a calf portion ; and the foot portion comprising a heel portion and a vamp portion ; the upper portion comprising a leg portion and a foot portion integrally connected each other through an ankle portion ; the leg portion comprising a shin portion and a calf portion ; and the foot portion comprising a heel portion and a vamp portion ; - a curved coverture configured to cover an outer side of the leg portion of the boot ; said curved coverture being shaped as airfoil and comprising a leading edge arranged in correspondence of the shin portion and a trailing edge (11") arranged in correspondence of the calf portion .
A method for controlling the height of a floor of a car (14; 114) of a vehicle (10; 110) relative to a platform (11; 111), the car (14; 114) comprising a body (16; 116) comprising the floor (18; 118), at least one bogie (20; 120) and at least one secondary suspension (22; 122) inserted between the bogie (20; 120) and the body (16; 116), the body (16; 116) being provided with a distance sensor (26; 126), the sensor (26; 126) being able to measure a distance (D) between said sensor (26; 126) and a platform (11; 111) when the vehicle is parked near said platform (11; 111), the method comprising the following steps: - measuring the distance (D) between the distance sensor (26; 126) and the platform (11; 111) via the distance sensor (26; 126), - calculating the difference between the height of the platform (H q ) and the height of the floor (H pla ) from the distance (D) measured between the distance sensor (26; 126) and the platform (11; 111), the height of the platform (H q ) and the height of the floor (H pla ) being advantageously taken relative to a same reference point, and - adjusting the height of the secondary suspension (H sec ), based on the difference, characterized in that , after the adjusting, the height (H pla ) of the entire floor (18; 118) is substantially equal to the height of the platform (H q ). the method comprising the following steps: - measuring the distance (D) between the distance sensor (26; 126) and the platform (11; 111) via the distance sensor (26; 126), - calculating the difference between the height of the platform (H q ) and the height of the floor (H pla ) from the distance (D) measured between the distance sensor (26; 126) and the platform (11; 111), the height of the platform (H q ) and the height of the floor (H pla ) being advantageously taken relative to a same reference point, and - adjusting the height of the secondary suspension (H sec ), based on the difference, - measuring the distance (D) between the distance sensor (26; 126) and the platform (11; 111) via the distance sensor (26; 126), - calculating the difference between the height of the platform (H q ) and the height of the floor (H pla ) from the distance (D) measured between the distance sensor (26; 126) and the platform (11; 111), the height of the platform (H q ) and the height of the floor (H pla ) being advantageously taken relative to a same reference point, and - adjusting the height of the secondary suspension (H sec ), based on the difference, characterized in that , after the adjusting, the height (H pla ) of the entire floor (18; 118) is substantially equal to the height of the platform (H q ).
Crusher of a crushing machine (M) applied to oleaginous fruits, such as olives and the like; wherein said crusher comprises a central hub having a central axis (X) and a plurality of hammers connected to the central hub and arranged around the central hub ; wherein said hammers are suitable for cooperating with a grille (G) having a circular cross-section arranged around the crusher ; wherein each one of the hammers comprises an outer edge facing a direction opposite to the central hub and suitable for grazing the grille (G); wherein said outer edge of the hammer extends in length in a direction (D) parallel to the central axis (X) of the central hub ; characterized in that the outer edge of each hammer is toothed in such a way that said hammer has at least one recess and two teeth separated by said recess wherein the teeth of a hammer are staggered with respect to the teeth of the adjacent hammer .
An audio system comprising: a transducer assembly configured to be coupled to an ear of a user and to produce an acoustic pressure wave based on an audio instruction; an optical fiber (235;295) wherein an end of the optical fiber (235; 295) is configured to be suspended in air and positioned at an entrance of an ear canal (215;265) of the ear (210;260); a laser configured to emit light that is separated into a reference beam and a sensing beam, and the sensing beam is coupled into the optical fiber, wherein movement of the optical fiber caused by the acoustic pressure wave interacts with the sensing beam in the optical fiber to alter an optical path length of the sensing beam; a detector assembly configured to: detect the reference beam and detect the sensing beam from the optical fiber, and measure a detected acoustic pressure wave based in part on changes in optical path length between the reference beam and the sensing beam; and a controller configured to adjust the audio instruction based on the measurement of the detected acoustic pressure wave. a transducer assembly configured to be coupled to an ear of a user and to produce an acoustic pressure wave based on an audio instruction; an optical fiber (235;295) wherein an end of the optical fiber (235; 295) is configured to be suspended in air and positioned at an entrance of an ear canal (215;265) of the ear (210;260); a laser configured to emit light that is separated into a reference beam and a sensing beam, and the sensing beam is coupled into the optical fiber, wherein movement of the optical fiber caused by the acoustic pressure wave interacts with the sensing beam in the optical fiber to alter an optical path length of the sensing beam; a detector assembly configured to: detect the reference beam and detect the sensing beam from the optical fiber, and measure a detected acoustic pressure wave based in part on changes in optical path length between the reference beam and the sensing beam; and a controller configured to adjust the audio instruction based on the measurement of the detected acoustic pressure wave. detect the reference beam and detect the sensing beam from the optical fiber, and measure a detected acoustic pressure wave based in part on changes in optical path length between the reference beam and the sensing beam; and a controller configured to adjust the audio instruction based on the measurement of the detected acoustic pressure wave.
A flexible secondary battery comprising: an internal electrode provided with an internal current collector and a lithium-containing internal electrode layer surrounding the outside of the internal current collector; an electron-insulating protective layer surrounding the outside of the internal electrode, and provided with a non-porous layer comprising an inorganic solid electrolyte and an electrolyte-swelling polymer and a polymer porous layer surrounding the external surface of the non-porous layer; an electron-insulating support surrounding the outside of the electron-insulating protective layer; a separator layer surrounding the outside of the electron-insulating support; and an external electrode provided with an external electrode layer surrounding the outside of the separator layer and an external current collector surrounding the outside of the external electrode layer, wherein the electron-insulating support is a wound wire-type support surrounding the outside of the electron-insulating protective layer, the wound wire-type support has a thickness of from 100 μm to 3 mm, and the wound wire-type support has a pitch, preferably winding interval of from 1 μm to 1 cm. an internal electrode provided with an internal current collector and a lithium-containing internal electrode layer surrounding the outside of the internal current collector; an electron-insulating protective layer surrounding the outside of the internal electrode, and provided with a non-porous layer comprising an inorganic solid electrolyte and an electrolyte-swelling polymer and a polymer porous layer surrounding the external surface of the non-porous layer; an electron-insulating support surrounding the outside of the electron-insulating protective layer; a separator layer surrounding the outside of the electron-insulating support; and an external electrode provided with an external electrode layer surrounding the outside of the separator layer and an external current collector surrounding the outside of the external electrode layer, wherein the electron-insulating support is a wound wire-type support surrounding the outside of the electron-insulating protective layer, the wound wire-type support has a thickness of from 100 μm to 3 mm, and the wound wire-type support has a pitch, preferably winding interval of from 1 μm to 1 cm.
Hose which transports a coolant and at least has the following layer structure: - a first layer made of a crosslinked rubber mixture which acts as solvent-resistant internal layer and in contact with the coolant, and - a second layer made of a crosslinked rubber mixture which lies on the external side of the first layer , where the first layer and the second layer form an adhesive bond; characterized in that - the first layer consists of a peroxidically crosslinked rubber mixture based on an EPM/EPDM blend and - the second layer consists of a diaminically crosslinked and DOTG-free rubber mixture based on unblended ACM or on an ACM blend or on unblended AEM or on an AEM blend. - a first layer made of a crosslinked rubber mixture which acts as solvent-resistant internal layer and in contact with the coolant, and - a second layer made of a crosslinked rubber mixture which lies on the external side of the first layer , where the first layer and the second layer form an adhesive bond; characterized in that - the first layer consists of a peroxidically crosslinked rubber mixture based on an EPM/EPDM blend and - the second layer consists of a diaminically crosslinked and DOTG-free rubber mixture based on unblended ACM or on an ACM blend or on unblended AEM or on an AEM blend.
An extraction valve for overpressurised gas flowing from a compressed gas reservoir , having a valve seat carrier , Including a conical valve seat emerging centrally into an outflow chamber , having an extraction piston , which is mobile in its axial direction at least indirectly via an electromagnetic coil and which includes a valve body cooperating with the valve seat , and an inflow chamber for the pressurised gas, characterised in that the inflow chamber is designed totally or partially on the circumference of a central axis (A) of the extraction piston and is connected in the axial direction of the extraction piston against a flow direction (E) of the gas when the extraction piston is in an open position via an intermediate connection with an intermediate volume , which comprises a connection with the region in which the valve seat and the valve body co-operate.
A solar cell module having a solar cell comprising a transparent conductive layer and a collecting electrode formed on at least one of a light receiving surface and a back surface, wherein the collecting electrode is embedded in an opening (A) of an insulating coating layer , and comprises (i) a primary conductive layer formed over the transparent conductive layer and including copper, and (ii) an overcoat layer covering an upper surface side of the primary conductive layer ; wherein a thickness of the collecting electrode is thinner than a thickness of the insulating coating layer ; wherein a sealing layer of a resin covers an upper surface side of the collecting electrode ; and the sealing layer contacts the insulating coating layer and the overcoat layer . the collecting electrode is embedded in an opening (A) of an insulating coating layer , and comprises (i) a primary conductive layer formed over the transparent conductive layer and including copper, and (ii) an overcoat layer covering an upper surface side of the primary conductive layer ; wherein a thickness of the collecting electrode is thinner than a thickness of the insulating coating layer ; wherein a sealing layer of a resin covers an upper surface side of the collecting electrode ; and the sealing layer contacts the insulating coating layer and the overcoat layer .
A method for manufacturing a molded article, comprising a step of compression-molding a molding material with a mold to obtain a molded article, wherein the mold comprises at least three sections, two of which being an upper mold and a lower mold arranged to face the upper mold , wherein a pressing operation and a degassing operation are performed in the compression-molding; wherein the mold comprises a third section being an intermediate mold sandwiched between the upper mold and the lower mold , and has a degassing structure provided in at least two locations, one between the upper mold and the intermediate mold and one between the lower mold and the intermediate mold ; characterized in that the pressing and degassing operations are alternately repeated to carry out a pressing step.
A central processing center configured to process call information from a wireless communication device, the central processing center comprising: one or more circuits and/or processors configured to: communicate directly with the wireless communication device via a wireless access point using an Internet protocol; process payment for the call, the processing payment including: accessing a Debit Account stored on a server that is associated with the authenticated caller; verifying that the Debit Account includes sufficient funds for placing the call; and deducting the payment from the Debit Account; performing call restriction processing on the call; and authenticating at least one of the wireless communication device and a caller, the authenticating including: receiving identifying information associated with the caller; and matching the received identifying information with identification information previously stored in the server , wherein the server provides database support for the processing of the call information. one or more circuits and/or processors configured to: communicate directly with the wireless communication device via a wireless access point using an Internet protocol; process payment for the call, the processing payment including: accessing a Debit Account stored on a server that is associated with the authenticated caller; verifying that the Debit Account includes sufficient funds for placing the call; and deducting the payment from the Debit Account; performing call restriction processing on the call; and authenticating at least one of the wireless communication device and a caller, the authenticating including: receiving identifying information associated with the caller; and matching the received identifying information with identification information previously stored in the server , communicate directly with the wireless communication device via a wireless access point using an Internet protocol; process payment for the call, the processing payment including: accessing a Debit Account stored on a server that is associated with the authenticated caller; verifying that the Debit Account includes sufficient funds for placing the call; and deducting the payment from the Debit Account; accessing a Debit Account stored on a server that is associated with the authenticated caller; verifying that the Debit Account includes sufficient funds for placing the call; and deducting the payment from the Debit Account; performing call restriction processing on the call; and authenticating at least one of the wireless communication device and a caller, the authenticating including: receiving identifying information associated with the caller; and matching the received identifying information with identification receiving identifying information associated with the caller; and matching the received identifying information with identification information previously stored in the server , wherein the server provides database support for the processing of the call information.