mhurhangee/patent-ind-claim-en huggingface dataset:
A method of pairing a first device with a second device for wireless communication therebetween comprising: the first device transmits signals for a selected duration at selected intervals and in a selected radio frequency range; the second device scans for signals in the selected radio frequency range, the second device being provided with signal strength data related to respective signals detected when scanning; the second device determines whether the signal strength data for at least one of the detected signals satisfies signal strength criteria whereby the signal strength data is greater than a selected minimum signal strength criterion and is less than a selected maximum signal strength criterion; the second device determines whether the detected signals are from the first device and not another device depending on whether detected signals have designated device identifying information, and the signal strength data of the detected signals from the first device is greater than the selected minimum signal strength criterion and is less than the selected maximum signal strength criterion; and the second device sends the first device a pairing command when the detected signals satisfy the signal strength criteria and the second device determines that the detected signals are only from the first device and not from another device, the second device preventing pairing with the first device when the detected signals are determined to also be from another device. the first device transmits signals for a selected duration at selected intervals and in a selected radio frequency range; the second device scans for signals in the selected radio frequency range, the second device being provided with signal strength data related to respective signals detected when scanning; the second device determines whether the signal strength data for at least one of the detected signals satisfies signal strength criteria whereby the signal strength data is greater than a selected minimum signal strength criterion and is less than a selected maximum signal strength criterion; the second device determines whether the detected signals are from the first device and not another device depending on whether detected signals have designated device identifying information, and the signal strength data of the detected signals from the first device is greater than the selected minimum signal strength criterion and is less than the selected maximum signal strength criterion; and the second device sends the first device a pairing command when the detected signals satisfy the signal strength criteria and the second device determines that the detected signals are only from the first device and not from another device, the second device preventing pairing with the first device when the detected signals are determined to also be from another device.
A capacitance detection circuit for detecting capacitances of N capacitors to be detected, the N being greater than or equal to 2, wherein the capacitance detection circuit comprises: a reference capacitor, at least N-1 first front end circuits for converting capacitance signals of the capacitors to be detected into first voltage signals and performing differencing on the first voltage signals, at least one second front end circuit for converting capacitance signals of a capacitor to be detected and a reference capacitor into second voltage signals and performing differencing on the second voltage signals, and a processing circuit, wherein each of the at least N-1 first front end circuits comprises a first input end and a second input end, and each of the at least one second front end circuit comprises a third input end and a fourth input end; a first input end and a second input end of each of at least N-2 first front end circuits are respectively connected to two different capacitors to be detected; a first input end of a first front end circuit except the at least N-2 first front end circuits is simultaneously connected to a third input end of a second front end circuit and a capacitor to be detected, a second input end of the first front end circuit except the at least N-2 first front end circuits is simultaneously connected to a first input end of a first front end circuit of the at least N-2 first front end circuits and a capacitor to be detected, and the capacitors to be detected to which the two input ends of the first front end circuit except the at least N-2 first front end circuits are connected are different capacitors to be detected; a third input end of each of the at least one second front end circuit is connected to a capacitor to be detected, and a fourth input end of each of the at least one second front end circuit is connected to a reference capacitor; each of the at least N-1 first front end circuits outputs a first differential signal of voltages corresponding to two connected capacitors to be detected; each of the at least one second front end circuit outputs a second differential signal of voltages corresponding to a connected capacitor to be detected and a connected reference capacitor; and the processing circuit is connected to output ends of each of the first front end circuits and each of the second front end circuits, and is configured to determine, according to the first differential signal output by each of the first front end circuits and the second differential signal output by each of the second front end circuits, a capacitance value of each of the N capacitors to be detected.
An aluminum nitride sintered body comprising 100 parts by weight of AlN, 5 to 20 parts by weight on an oxide basis of ZrN, 1 to 10 parts by weight of Y 2 O 3 as a sintering aid and 0.025 to 0.15 parts by weight on a Si element basis of a Si component as a Si additive, characterized in that the sintered body has an oxygen content of 1.8 wt% or less, the sintering aid phase in the aluminum nitride sintered body contains YAM as a crystal phase and does not contain YAG as a crystal phase, a thermal conductivity is 130 W/m·K or higher and a three-point flexural strength is 600 MPa or more; for the conductivity measurement, a laser flash technique based on the JIS-R1611 standard was used; the oxygen content is measured by means of inert gas fusion-nondispersive infrared absorptiometry; a three-point flexural test based on the JIS-R1601 standard was used. for the conductivity measurement, a laser flash technique based on the JIS-R1611 standard was used; the oxygen content is measured by means of inert gas fusion-nondispersive infrared absorptiometry; a three-point flexural test based on the JIS-R1601 standard was used.
A fluid controller for arthroscopic procedures, the fluid controller being couplable to a tube for a coupling the fluid controller to a surgical site , the fluid controller comprising: a user interface configured to accept a setpoint joint pressure; a positive displacement pump that comprises a motor; a pressure sensor configured to read pressure at an outlet of the positive displacement pump; a control system coupled to the user interface , the pressure sensor , and the motor of the positive displacement pump , the control system configured to control speed of the motor by way of feedback control loop, the feedback control loop operates based on control loop parameters , a pressure measured by the pressure sensor, and the setpoint joint pressure; the control system is configured to operate in a first mode that utilizes a first relationship of fluid flow through the tube (Q) and a pressure drop across the tube (ΔP), and the first mode utilizes a first set of control loop parameters ; and the control system is configured to operate in a second mode that utilizes a second relationship of fluid flow through tube (Q) and a pressure drop across the tube (ΔP), the second mode different than the first mode, and the second mode utilizes a second set of control loop parameters , the second set of parameters different than the first set of parameters ; wherein the control system is configured to generate a speed control output based on (i) the set of control loop parameters and (ii) a pressure error output . a user interface configured to accept a setpoint joint pressure; a positive displacement pump that comprises a motor; a pressure sensor configured to read pressure at an outlet of the positive displacement pump; a control system coupled to the user interface , the pressure sensor , and the motor of the positive displacement pump , the control system configured to control speed of the motor by way of feedback control loop, the feedback control loop operates based on control loop parameters , a pressure measured by the pressure sensor, and the setpoint joint pressure; the control system is configured to operate in a first mode that utilizes a first relationship of fluid flow through the tube (Q) and a pressure drop across the tube (ΔP), and the first mode utilizes a first set of control loop parameters ; and the control system is configured to operate in a second mode that utilizes a second relationship of fluid flow through tube (Q) and a pressure drop across the tube (ΔP), the second mode different than the first mode, and the second mode utilizes a second set of control loop parameters , the second set of parameters different than the first set of parameters ; wherein the control system is configured to generate a speed control output based on (i) the set of control loop parameters and (ii) a pressure error output .
Functionalized infrastructure comprising a bottom layer comprising a zone to be covered, said infrastructure comprising: - n covering slabs , n being greater than or equal to 2, the n slabs each comprising a coverage surface for covering a part of said zone , the n slabs being arranged juxtaposed in order to pave said surface to be covered, each covering slab comprising at least one electrical functionalization assembly, - the n covering slabs comprise at least one covering slab of a first type having a coverage surface of a first form and a covering slab of a second type having a coverage surface of a second form, distinct from the first form, said infrastructure being characterized in that : - each covering slab comprises an electrical connection block , such that, for two adjacent slabs directly connected with each other: - the electrical connection block of each slab is arranged on the slab so as to be separated from the electrical connection block of the adjacent slab by a pitch (P) that is constant, whatever the form of each of their slabs, - the infrastructure comprises an electrical connecting cable between said two adjacent slabs, said cable being of a length corresponding to said constant pitch. - n covering slabs , n being greater than or equal to 2, the n slabs each comprising a coverage surface for covering a part of said zone , the n slabs being arranged juxtaposed in order to pave said surface to be covered, each covering slab comprising at least one electrical functionalization assembly, - the n covering slabs comprise at least one covering slab of a first type having a coverage surface of a first form and a covering slab of a second type having a coverage surface of a second form, distinct from the first form, - each covering slab comprises an electrical connection block , such that, for two adjacent slabs directly connected with each other: - the electrical connection block of each slab is arranged on the slab so as to be separated from the electrical connection block of the adjacent slab by a pitch (P) that is constant, whatever the form of each of their slabs, - the infrastructure comprises an electrical connecting cable between said two adjacent slabs, said cable being of a length corresponding to said constant pitch. - the electrical connection block of each slab is arranged on the slab so as to be separated from the electrical connection block of the adjacent slab by a pitch (P) that is constant, whatever the form of each of their slabs, - the infrastructure comprises an electrical connecting cable between said two adjacent slabs, said cable being of a length corresponding to said constant pitch.
A blowervac device, comprising: a housing having a motor; a fan driven by the motor; a volute connected to the housing and enclosing the fan, the volute having an air inlet and an air outlet; a grill capable of covering the air inlet to the volute in a blow mode, characterised by the grill having an outer ring and a cover rotatable within the outer ring; and a safety switch being activated by the rotation of the cover, the safety switch preventing actuation of the motor when in the non-actuated position. a housing having a motor; a fan driven by the motor; a volute connected to the housing and enclosing the fan, the volute having an air inlet and an air outlet; a grill capable of covering the air inlet to the volute in a blow mode, characterised by the grill having an outer ring and a cover rotatable within the outer ring; and a safety switch being activated by the rotation of the cover, the safety switch preventing actuation of the motor when in the non-actuated position.
Jet regulator having at least one jet splitter , which splits up the inflowing stream of water, having a sleeve-shaped inner housing , which is enclosed by an outer housing , and having at least one ventilation channel , which is arranged between the inner housing and the outer housing and has at least one inlet opening and at least one through-opening that is provided on the housing circumference of the inner housing , wherein the at least one jet splitter is in the form of an atomizer nozzle, characterized in that the atomizer nozzle splits up the inflowing stream of water into a substantially hollow-conical water jet, and in that an annularly encircling impingement zone , in which the hollow-conically split-up water jet impinges on the housing inner circumference of the inner housing , is arranged underneath the at least one through-opening in the direction of flow, on the inner circumference of the inner housing .
Method of processing grains of a rape seed comprising the steps: - unshelling the grains in that the grains are guided through a nip between unshelling rolls , and separating a low-shell grain fraction from a high-shell grain fraction by sieving and/or air-separating; and - pressing cold pressed rape core oil out of the low-shell grain fraction at a temperature below 65° C, wherein an oil cake is obtained; characterised in - that shells remaining in the low-shell grain fraction do not amount to more than 4 percent by weight, - that the low-shell grain fraction is pressed out to a first residual oil content of 20 to 24 percent by weight of its dry matter, - that pressurized steam is supplied to the oil cake and that the oil cake is afterwards expanded into collets, wherein, under the influence of the steam , the oil cake is temporarily heated up to above 100° C, - wherein the collets are extracted by means of hexane or another organic solvent to reduce the collets to a second residual oil content of less than 2 percent by weight of their dry matter, and - that the collets extracted by means of hexane or the other organic solvent are extracted by means of an aqueous alcohol solution to obtain a purified rape protein concentrate , wherein the aqueous alcohol solution comprises 70 to 96 percent by volume alcohol. - unshelling the grains in that the grains are guided through a nip between unshelling rolls , and separating a low-shell grain fraction from a high-shell grain fraction by sieving and/or air-separating; and - pressing cold pressed rape core oil out of the low-shell grain fraction at a temperature below 65° C, wherein an oil cake is obtained; characterised in - that shells remaining in the low-shell grain fraction do not amount to more than 4 percent by weight, - that the low-shell grain fraction is pressed out to a first residual oil content of 20 to 24 percent by weight of its dry matter, - that pressurized steam is supplied to the oil cake and that the oil cake is afterwards expanded into collets, wherein, under the influence of the steam , the oil cake is temporarily heated up to above 100° C, - wherein the collets are extracted by means of hexane or another organic solvent to reduce the collets to a second residual oil content of less than 2 percent by weight of their dry matter, and - that the collets extracted by means of hexane or the other organic solvent are extracted by means of an aqueous alcohol solution to obtain a purified rape protein concentrate , wherein the aqueous alcohol solution comprises 70 to 96 percent by volume alcohol.
An untethered, single-bodied pig for inspecting a tubular object, the pig comprising: a plurality of transducer casings , each transducer casing including an electrical terminal ; a plurality of transducers for detecting a condition of the tubular object, each transducer mounted on or in a respective one of the plurality of transducer casings ; a transducer body defining a plurality of receptacles , each transducer casing removably received in a respective one of the plurality of receptacles ; and a plurality of compressible electrical connectors , each compressible electrical connector at least partially arranged inside a respective one of the plurality of receptacles , wherein each compressible electrical connector is configured to be in electrical contact with the electrical terminal of the transducer casing received in the corresponding receptacle . a plurality of transducer casings , each transducer casing including an electrical terminal ; a plurality of transducers for detecting a condition of the tubular object, each transducer mounted on or in a respective one of the plurality of transducer casings ; a transducer body defining a plurality of receptacles , each transducer casing removably received in a respective one of the plurality of receptacles ; and a plurality of compressible electrical connectors , each compressible electrical connector at least partially arranged inside a respective one of the plurality of receptacles , wherein each compressible electrical connector is configured to be in electrical contact with the electrical terminal of the transducer casing received in the corresponding receptacle .
A method of processing electronic waste comprising plastic constituents, metal constituents and ceramic constituents, the method comprising: heating the electronic waste in a first temperature zone to a first temperature of up to about 350 °C; and characterized by heating the electronic waste from the first temperature zone in a second temperature zone to a second temperature of at least about 850 °C at a rate of about 50 °C/min or greater such that at least some of the metal constituents in the electronic waste are at least partially thermally transformed by melting, alloy formation and/or dissolution. heating the electronic waste in a first temperature zone to a first temperature of up to about 350 °C; and characterized by heating the electronic waste from the first temperature zone in a second temperature zone to a second temperature of at least about 850 °C at a rate of about 50 °C/min or greater such that at least some of the metal constituents in the electronic waste are at least partially thermally transformed by melting, alloy formation and/or dissolution.
Lifting mechanism comprising a shelf for installation in a drawer or in a body of a piece of furniture or domestic appliance, comprising a pair of mechanisms for raising and lowering the shelf , wherein one of the mechanisms is arranged in each case on one side of the shelf and wherein the two mechanisms are coupled to one another via a synchronization rod , characterized in that the length (L S ) of the synchronization rod is variably adjustable, wherein the lifting mechanism comprises a scissor mechanism with two pairs of crossed and mutually rotatably connected scissor levers for raising and lowering the shelf , wherein a respective first scissor lever is arranged on the shelf in a stationary and rotatable manner at a first end on the shelf and a respective second scissor lever is arranged on the shelf in a rotatable and displaceable manner at a first end , wherein a second end of the first scissor lever can be arranged rotatably and displaceably and a second end of the second scissor lever can be arranged fixedly and rotatably on the drawer or the body of the furniture or domestic appliance, and wherein the second ends of the first scissor lever are coupled to one another via a synchronization rod .
A medical implant for the treatment of aneurysms, with a carrier structure which has a compressible and expandable mesh structure produced from mesh elements which delimit mesh openings, wherein the mesh structure is covered, at least in sections, with a membrane which is produced from fibres and which in particular is electrospun and which comprises at least one luminal functional layer and at least one abluminal support layer which respectively have pores, wherein the porosity of the functional layer is smaller than the porosity of the support layer , wherein the membrane is configured in a manner such that, as a consequence of a pressure gradient which occurs between a liquid pressure in an inner through channel of the carrier structure and a liquid pressure outside the support layer , at least the pores of the functional layer open in order to increase the flow of liquid through the membrane .
An array substrate, comprising a substrate , a gate line , an insulation layer , an active portion part of an active layer, and a data line which are formed on the substrate , wherein the active portion and the data line are provided in different layers, the insulation layer is provided on the gate line , the data line is provided on the gate line with the insulation layer in-between and is crossed with the gate line , and the active portion is provided between the gate line and the data line in a direction perpendicular to the substrate , wherein the array substrate further comprises a shield that is provided above the gate line and the insulation layer , that covers the gate line in the direction perpendicular to the substrate and that is electrically insulated from the gate line , the active portion , and the data line , and characterized in that the shield is provided in the same layer and made of the same material as the active portion . the active portion and the data line are provided in different layers, the insulation layer is provided on the gate line , the data line is provided on the gate line with the insulation layer in-between and is crossed with the gate line , and the active portion is provided between the gate line and the data line in a direction perpendicular to the substrate , wherein the array substrate further comprises a shield that is provided above the gate line and the insulation layer , that covers the gate line in the direction perpendicular to the substrate and that is electrically insulated from the gate line , the active portion , and the data line , and characterized in that the shield is provided in the same layer and made of the same material as the active portion . the array substrate further comprises a shield that is provided above the gate line and the insulation layer , that covers the gate line in the direction perpendicular to the substrate and that is electrically insulated from the gate line , the active portion , and the data line , and characterized in that the shield is provided in the same layer and made of the same material as the active portion .