mhurhangee/patent-ind-claim-en huggingface dataset:
Illuminator for an image acquisition system comprising an optical apparatus for acquiring images of an object, wherein said optical apparatus includes an acquisition sensor and a control device to command the acquisition and processing of an image and the switching on of the illuminator , wherein said optical apparatus is provided with optical means and said illuminator is associable with said optical apparatus ; wherein said illuminator comprises: a body provided with an opening , for receiving said optical means ; illuminating means arranged around said opening in a frontal face of said body and commandable by said control device of said optical apparatus to illuminate a space in front of said frontal face ; electronic control means of said illuminator ; heat dissipating means; connecting means for removably fixing said illuminator at least to said optical apparatus ; wherein said body comprises a rear face opposite said frontal face which comprises a plurality of distinct functional case elements suitable for receiving at least said electronic control means or suitable for defining said heat dissipating means or defining said connecting means, wherein said functional case elements are fixed to a rear wall of said rear face , characterised in that said functional case elements are positioned around said opening , distributed around said opening and conveniently spaced apart from said opening in such a manner as to enable an operator, when said optical apparatus is associated with said illuminator , to access said optical means in order to dismantle said optical means from said apparatus or to adjust optical adjusting means of said optical means , said functional case elements including a first set of functional case elements, wherein the elements of said first set of functional case elements have a reduced height lesser than a preset height and are arranged in a first sector of said rear wall between said opening and a side wall of said body to define a preferential lateral access portion devoid of obstacles to said optical means .
A signal selection and fault detection system comprising: four input equalization circuits each configured to: receive an input signal from a respective sensor for a particular frame, wherein the input signal is indicative of a same parameter measured by the respective sensor ; and output an equalized signal based on the received input signal; and a five-input output selection circuit coupled to said four input equalization circuits and configured to: receive an equalized signal from each of said four input equalization circuits , said five-input output selection circuit configured to : receive a previous frame output signal, output by the five-input output selection circuit and transmitted back to the five-input output selection circuit through a delay circuit , and select a median signal of the four equalized signals and the previous frame output signal as the output signal of the five-input output selection circuit . four input equalization circuits each configured to: receive an input signal from a respective sensor for a particular frame, wherein the input signal is indicative of a same parameter measured by the respective sensor ; and output an equalized signal based on the received input signal; and receive an input signal from a respective sensor for a particular frame, wherein the input signal is indicative of a same parameter measured by the respective sensor ; and output an equalized signal based on the received input signal; and a five-input output selection circuit coupled to said four input equalization circuits and configured to: receive an equalized signal from each of said four input equalization circuits , said five-input output selection circuit configured to : receive a previous frame output signal, output by the five-input output selection circuit and transmitted back to the five-input output selection circuit through a delay circuit , and select a median signal of the four receive an equalized signal from each of said four input equalization circuits , said five-input output selection circuit configured to : receive a previous frame output signal, output by the five-input output selection circuit and transmitted back to the five-input output selection circuit through a delay circuit , and select a median signal of the four equalized signals and the previous frame output signal as the output signal of the five-input output selection circuit .
A system comprising: a processor configured to be coupled to an electrical lead that is configured to sense electrical activity in a patient; a memory coupled to the processor, the memory containing computer readable instructions that, when executed by the processor, cause the processor to: detect a pain signature in the sensed electrical activity; determine a treatment protocol in response to the detected pain signature; and cause the treatment protocol to be delivered to the patient via the electrical lead; wherein the processor is able of detecting the pain signature in the sensed electrical activity by detecting a pain signature comprising a pattern of burst-firing, each burst of said burst firing comprising at least 10 times the number of spikes compared to a control non-pain pattern and wherein said burst firing comprises: (a) a maximum interval signifying burst onset of 6 ms; and (b) a maximum interspike interval of 9 ms; and (c) longest increase in interspike interval within a burst of 2 ms; and (d) a minimum number of spikes within a burst of 2. a processor configured to be coupled to an electrical lead that is configured to sense electrical activity in a patient; a memory coupled to the processor, the memory containing computer readable instructions that, when executed by the processor, cause the processor to: detect a pain signature in the sensed electrical activity; determine a treatment protocol in response to the detected pain signature; and cause the treatment protocol to be delivered to the patient via the electrical lead; detect a pain signature in the sensed electrical activity; determine a treatment protocol in response to the detected pain signature; and cause the treatment protocol to be delivered to the patient via the electrical lead; wherein the processor is able of detecting the pain signature in the sensed electrical activity by detecting a pain signature comprising a pattern of burst-firing, each burst of said burst firing comprising at least 10 times the number of spikes compared to a control non-pain pattern and wherein said burst firing comprises: (a) a maximum interval signifying burst onset of 6 ms; and (b) a maximum interspike interval of 9 ms; and (c) longest increase in interspike interval within a burst of 2 ms; and (d) a minimum number of spikes within a burst of 2. (a) a maximum interval signifying burst onset of 6 ms; and (b) a maximum interspike interval of 9 ms; and (c) longest increase in interspike interval within a burst of 2 ms; and (d) a minimum number of spikes within a burst of 2.
A process for cooling a metal workload that has been heated to an elevated temperature comprising the steps of: providing a metal workload that has been heated to an elevated temperature selected to cause the metal in said workload to transform to austenite; placing the metal workload in a quenching chamber while the metal part is at the elevated temperature; closing the quenching chamber; and then quenching the metal workload by performing the following steps: flowing a vegetable oil quenchant over the metal workload and applying a positive pressure of an inert gas in the quenching chamber during said flowing step; wherein the vegetable oil flow rate and the positive pressure of the inert gas are selected to provide a cooling rate that is sufficient to transform the metal to a second metallurgical phase within a preselected time period, and wherein the second metallurgical phase is one or more of martensite, bainite, and pearlite. providing a metal workload that has been heated to an elevated temperature selected to cause the metal in said workload to transform to austenite; placing the metal workload in a quenching chamber while the metal part is at the elevated temperature; closing the quenching chamber; and then quenching the metal workload by performing the following steps: flowing a vegetable oil quenchant over the metal workload and applying a positive pressure of an inert gas in the quenching chamber during said flowing step; wherein the vegetable oil flow rate and the positive pressure of the inert gas are selected to provide a cooling rate that is sufficient to transform the metal to a second metallurgical phase within a preselected time period, and wherein the second metallurgical phase is one or more of martensite, bainite, and pearlite. flowing a vegetable oil quenchant over the metal workload and applying a positive pressure of an inert gas in the quenching chamber during said flowing step; wherein the vegetable oil flow rate and the positive pressure of the inert gas are selected to provide a cooling rate that is sufficient to transform the metal to a second metallurgical phase within a preselected time period, and wherein the second metallurgical phase is one or more of martensite, bainite, and pearlite.
A self-starting synchronous reluctance motor rotor, comprising: a rotor core provided with a plurality of slit grooves , wherein both ends of each slit groove are respectively provided with a filled groove ; a first end of the filled groove is adjacent to the slit groove , and a second end of the filled groove extends outwards parallel to the d-axis of the rotor core ; the second end of the filled groove is provided with at least one bevel edge, so that when the d-axis magnetic flux of the rotor core enters a stator along channels formed at the bevel edge, no abrupt change occurs to the magnetic flux; wherein the second end of the filled groove is provided with two bevel edges, and the two bevel edges comprise: a first bevel edge arranged on one sidewall of the filled groove far from the shaft hole of the rotor core ; the first bevel edge forms a first included angle with the d-axis; and a second bevel edge arranged on one sidewall of the filled groove adjacent to the shaft hole ; the second bevel edge forms a second included angle with the d-axis; characterized in that the first included angle is θ1, where θ1 ≥135° , and the second included angle is θ2, where θ2 ≤170° . a first bevel edge arranged on one sidewall of the filled groove far from the shaft hole of the rotor core ; the first bevel edge forms a first included angle with the d-axis; and a second bevel edge arranged on one sidewall of the filled groove adjacent to the shaft hole ; the second bevel edge forms a second included angle with the d-axis; characterized in that the first included angle is θ1, where θ1 ≥135° , and the second included angle is θ2, where θ2 ≤170° .
A method for producing nanofluorapatite crystals or microfluorapatite crystals, the method comprising the steps of: a) providing a first aqueous solution comprising: a phosphate source and a fluoride source, and optionally lactic acid said first aqueous solution being supersaturated with respect to the phosphate source and the fluoride source, b) providing a second aqueous solution comprising a calcium source, said second aqueous solution being unsaturated with respect to the calcium source, c) mixing the first aqueous solution and the second aqueous solution thereby providing a mixture comprising nanofluorapatite crystals or microfluorapatite crystals and a further aqueous solution, d) optionally stirring the mixture of step c), e) optionally heating the mixture of step c) and/or step d), f) separating the nanofluorapatite crystals or microfluorapatite crystals from the further aqueous solution, g) optionally drying the nanofluorapatite crystals or microfluorapatite crystals of step f), and h) optionally milling the nanofluorapatite crystals or microfluorapatite crystals obtained in step f) or step g), wherein nanofluorapatite crystals are formed when the first aqueous solution in step a) is free from lactic acid and microfluorapatite crystals are formed when the first aqueous solution in step a) comprises lactic acid a) providing a first aqueous solution comprising: a phosphate source and a fluoride source, and optionally lactic acid said first aqueous solution being supersaturated with respect to the phosphate source and the fluoride source, a phosphate source and a fluoride source, and optionally lactic acid said first aqueous solution being supersaturated with respect to the phosphate source and the fluoride source, b) providing a second aqueous solution comprising a calcium source, said second aqueous solution being unsaturated with respect to the calcium source, c) mixing the first aqueous solution and the second aqueous solution thereby providing a mixture comprising nanofluorapatite crystals or microfluorapatite crystals and a further aqueous solution, d) optionally stirring the mixture of step c), e) optionally heating the mixture of step c) and/or step d), f) separating the nanofluorapatite crystals or microfluorapatite crystals from the further aqueous solution, g) optionally drying the nanofluorapatite crystals or microfluorapatite crystals of step f), and h) optionally milling the nanofluorapatite crystals or microfluorapatite crystals obtained in step f) or step g),
An apparatus for measuring the at least one of pressure, temperature, and wind velocity of a volume of air comprising: a laser having a first frequency of radiation and a second frequency of radiation ; a first waveguide coupled to the laser ; a second waveguide (30; 50; 72); a narrowband filter coupled between the first waveguide and the second waveguide (30; 50; 72), wherein the narrowband filter is configured to redirect the first frequency of radiation to the second waveguide (30; 50; 72); and a first photodetector (42; 74) coupled to the second waveguide (30; 50; 72); wherein the first waveguide is arranged to transmit the second frequency of radiation to the volume of air ; means (30; 52; 70) for receiving scattered light from the volume of air ; and the first photodetector (42; 74) being arranged to perform heterodyne detection by mixing the first frequency of radiation on the second waveguide and the received scattered light on said means for receiving scattered light, wherein the first photodetector (42; 74) outputs a beat frequency; wherein said means for receiving scattered light comprise: the second waveguide , arranged to transmit the scattered light to the first photodetector ; or. a third waveguide (52; 70) coupled to the first photodetector (42; 74) and arranged to transmit the scattered light to the first photodetector (42; 74). a laser having a first frequency of radiation and a second frequency of radiation ; a first waveguide coupled to the laser ; a second waveguide (30; 50; 72); a narrowband filter coupled between the first waveguide and the second waveguide (30; 50; 72), wherein the narrowband filter is configured to redirect the first frequency of radiation to the second waveguide (30; 50; 72); and a first photodetector (42; 74) coupled to the second waveguide (30; 50; 72); wherein the first waveguide is arranged to transmit the second frequency of radiation to the volume of air ; means (30; 52; 70) for receiving scattered light from the volume of air ; and the first photodetector (42; 74) being arranged to perform heterodyne detection by mixing the first frequency of radiation on the second waveguide and the received scattered light on said means for receiving scattered light, wherein the first photodetector (42; 74) outputs a beat frequency; wherein said means for receiving scattered light comprise: the second waveguide , arranged to transmit the scattered light to the first photodetector ; or. a third waveguide (52; 70) coupled to the first photodetector (42; 74) and arranged to transmit the scattered light to the first photodetector (42; 74). the second waveguide , arranged to transmit the scattered light to the first photodetector ; or. a third waveguide (52; 70) coupled to the first photodetector (42; 74) and arranged to transmit the scattered light to the first photodetector (42; 74).
- A method for manufacturing and implementing, in a room , a ceiling including vertical slats , the method comprising the following steps: - a step of making a frame comprising at least two parallel rails , - a step of securing an anchor plate provided with first holes to each rail , - a step of attaching the frame provided with the anchor plates to its intended location in the room , - a step of crafting several counter-laths each provided with several parallel slats and having second holes , - a step of positioning each counter-lath between the two anchor plates so as to superimpose a second hole of the counter-lath with a first hole of each anchor plate , - a step of attaching each counter-lath to the two plates , by inserting two pins into the first and second superimposed holes. - a step of making a frame comprising at least two parallel rails , - a step of securing an anchor plate provided with first holes to each rail , - a step of attaching the frame provided with the anchor plates to its intended location in the room , - a step of crafting several counter-laths each provided with several parallel slats and having second holes , - a step of positioning each counter-lath between the two anchor plates so as to superimpose a second hole of the counter-lath with a first hole of each anchor plate , - a step of attaching each counter-lath to the two plates , by inserting two pins into the first and second superimposed holes.
A method for balancing terminals of an HVAC system , the method comprising: inputting into a computer processing portion of an air flow measuring device predetermined target flows for each terminal ; acquiring via the air flow measuring device initially measured air flows through each of the terminals , the initially measured airflows being provided to the computer processing portion ; and characterized by the computer processing portion determining, from the initially measured air flows through each terminal , an initial flow error ratio for each terminal , and calculating, based on the initial flow error ratio for each terminal , a flow set point for each terminal ; the method being further characterized by adjusting the terminals in the HVAC system to the flow set points according to instructions from the computer processing portion ; wherein the flow set points for each terminal correspond to the predetermined target flow for a given terminal after all terminals have been adjusted as instructed. inputting into a computer processing portion of an air flow measuring device predetermined target flows for each terminal ; acquiring via the air flow measuring device initially measured air flows through each of the terminals , the initially measured airflows being provided to the computer processing portion ; and characterized by the computer processing portion determining, from the initially measured air flows through each terminal , an initial flow error ratio for each terminal , and calculating, based on the initial flow error ratio for each terminal , a flow set point for each terminal ; the method being further characterized by adjusting the terminals in the HVAC system to the flow set points according to instructions from the computer processing portion ; wherein the flow set points for each terminal correspond to the predetermined target flow for a given terminal after all terminals have been adjusted as instructed.
A tray destacker comprising destacking screws for singulating and destacking trays of a tray stack , each destacking screw comprising a helix configured as a helical recess, wherein two destacking screws , which have an identical direction of rotation (D) and an identical direction (W) of windings, are associated with a common tray stack , wherein the helixes of both destacking screws have a contact height corresponding, at least substantially, to a flange height of the tray flange , and wherein the contact height of the helixes is configured such that the tray flange of the tray is guidable between a respective outer edge of the upper side and of the lower side of the helixes , characterized in that the destacking screws are configured for guiding a respective side of the tray flange with a respective contact point with the outer edge of the upper side of their helixes and a further contact point with the lower side of their helixes .
Bearing, comprising at least two rubber bushings , each having a vertical axis of rotation , wherein the rubber bushings are functionally connected in parallel, wherein the two rubber bushings form a unit that can be pre-assembled, wherein the rubber bushings are arranged adjacently at a distance from one another and are each in a bushing carrier , wherein the rubber bushings each have a substantially hollow cylindrical-shaped bushing core which is connectable to a bracket , wherein the bushing carriers are interconnected by a bridge and wherein the bridge has a fixing device for fixing an assembly to be supported, characterised in that the fixing device comprises an opening in the bridge , in that in the opening a threaded sleeve is arranged, in that at its end face the threaded sleeve has an annular collar for the assembly to be supported on the one side, and at the end face on the other side is height-adjustably connected by means of an external thread to a first internal thread of the wall of the bridge which delimits the opening , and in that the threaded sleeve has a second internal thread for fixing the assembly to be supported on the collar .