mhurhangee/patent-ind-claim-en huggingface dataset:
A method for classifying an emission, the method comprising: placing a first acoustic sensor and a second acoustic sensor in a training mode and activating a non-hazardous emission; generating a first reference acoustic profile at the first acoustic sensor in the training mode, wherein the first reference acoustic profile includes sound pressure levels sensed across a plurality of frequencies in response to the non-hazardous emission; generating a second reference acoustic profile at the second acoustic sensor in the training mode, wherein the second reference acoustic profile includes sound pressure levels sensed across a plurality of frequencies in response to the non-hazardous emission; generating a first acoustic profile at the first acoustic sensor ; generating a second acoustic profile at the second acoustic sensor ; detecting a potential alarm when the first acoustic sensor and/or the second acoustic sensor detects a sound pressure level above a sound pressure level of the normal background noise by some amount; comparing the first acoustic profile to the first reference acoustic profile to generate a first difference if a potential alarm is detected; comparing the second acoustic profile to the second reference acoustic profile to generate a second difference if the first difference does not exceed a threshold; and classifying the emission as one of a hazardous emission or a non-hazardous emission in response to the first difference and the second difference. placing a first acoustic sensor and a second acoustic sensor in a training mode and activating a non-hazardous emission; generating a first reference acoustic profile at the first acoustic sensor in the training mode, wherein the first reference acoustic profile includes sound pressure levels sensed across a plurality of frequencies in response to the non-hazardous emission; generating a second reference acoustic profile at the second acoustic sensor in the training mode, wherein the second reference acoustic profile includes sound pressure levels sensed across a plurality of frequencies in response to the non-hazardous emission; generating a first acoustic profile at the first acoustic sensor ; generating a second acoustic profile at the second acoustic sensor ; detecting a potential alarm when the first acoustic sensor and/or the second acoustic sensor detects a sound pressure level above a sound pressure level of the normal background noise by some amount; comparing the first acoustic profile to the first reference acoustic profile to generate a first difference if a potential alarm is detected; comparing the second acoustic profile to the second reference acoustic profile to generate a second difference if the first difference does not exceed a threshold; and classifying the emission as one of a hazardous emission or a non-hazardous emission in response to the first difference and the second difference.
A control system for controlling a drive for an AC motor , the control system programmed to: input an initial voltage-frequency command to the drive , the initial voltage-frequency command comprising a voltage reference and a frequency reference corresponding to an operating point of an initial voltage/frequency (V/Hz) curve , characterised by the initial V/Hz curve including a defined bound comprising one of an origin of the initial V/Hz curve and a field weakening point of the initial V/Hz curve ; and by being programmed to monitor a real-time output of the drive ; modify the voltage reference based on the real-time output of the drive ; and transmit a modified voltage-frequency command to the drive , the modified voltage-frequency command corresponding to an operating point of a modified V/Hz curve defined by the modified voltage reference and the defined bound of the initial V/Hz curve . input an initial voltage-frequency command to the drive , the initial voltage-frequency command comprising a voltage reference and a frequency reference corresponding to an operating point of an initial voltage/frequency (V/Hz) curve , characterised by the initial V/Hz curve including a defined bound comprising one of an origin of the initial V/Hz curve and a field weakening point of the initial V/Hz curve ; and by being programmed to monitor a real-time output of the drive ; modify the voltage reference based on the real-time output of the drive ; and transmit a modified voltage-frequency command to the drive , the modified voltage-frequency command corresponding to an operating point of a modified V/Hz curve defined by the modified voltage reference and the defined bound of the initial V/Hz curve .
A tool for removing a fan disc alone from a module having a longitudinal axis (X) of a turbomachine comprising a rotor and a stator , the rotor comprising the fan disc , a drum and an annular sealing part centered on the axis (X) and secured to one another via a circular row of bolts each comprising a screw and a nut , each screw passing through a retaining member arranged inside the rotor , each retaining member having at least two opposing lugs arranged around a head of the screw and projecting with respect to the head , the stator being centered on the axis (X) and surrounding the drum , the stator being longitudinally delimited by a compressor stator vanes assembly (r4) arranged opposite the fan disc , the compressor stator vanes assembly (r4) comprising an outer shell having a flange , the tool having a vertical axis (Z) comprising: - a frame comprising ground support means ; - an annular plate centered on the axis (Z) and secured to the frame , this plate comprising first and second circular rows of pins as well as two holes arranged around the axis (Z) at a regular pitch, each of the two holes being arranged between the first and second rows , each of the pins being configured to bear the head of a screw so as not to damage the lugs of the retaining members , each hole being configured to receive an indexing finger of the module relative to the tool ; - at least three supports distributed in a regular manner around the axis (Z) and secured to the frame , each support comprising a bearing surface , the bearing surfaces being coplanar and being configured to support the flange of the compressor stator vanes assembly (r4) of the module , the three supports being vertically located below the plate ; - a first visual marker arranged on the frame and configured to angularly orient the module relative to the tool . - a frame comprising ground support means ; - an annular plate centered on the axis (Z) and secured to the frame , this plate comprising first and second circular rows of pins as well as two holes arranged around the axis (Z) at a regular pitch, each of the two holes being arranged between the first and second rows , each of the pins being configured to bear the head of a screw so as not to damage the lugs of the retaining members , each hole being configured to receive an indexing finger of the module relative to the tool ; - at least three supports distributed in a regular manner around the axis (Z) and secured to the frame , each support comprising a bearing surface , the bearing surfaces being coplanar and being configured to support the flange of the compressor stator vanes assembly (r4) of the module , the three supports being vertically located below the plate ; - a first visual marker arranged on the frame and configured to angularly orient the module relative to the tool .
A main apparatus , comprising: a transmission unit that is configured to transmit an audio signal via wireless communication and is capable of being switched on/off by the main apparatus ; a Wi-Fi communication circuit configured to communicate to/from a terminal apparatus , receive a request to switch the transmission unit on, and transmit to the terminal apparatus , when a request to switch the transmission unit on is received by the Wi-Fi communication circuit , sink device related information, which is information on sink device capable of receiving a signal transmitted from the transmission unit , the sink device related information being acquired before the reception of the request to switch the transmission unit on; and a detection unit configured to detect, when the sink device related information does not contain information on sink device , sink device in response to a command transmitted to the main apparatus ; a storage unit configured to store the sink device related information on sink device detected by the detection unit ; and a control unit configured to control operations of the transmission unit , the Wi-Fi communication circuit and the detection unit . a transmission unit that is configured to transmit an audio signal via wireless communication and is capable of being switched on/off by the main apparatus ; a Wi-Fi communication circuit configured to communicate to/from a terminal apparatus , receive a request to switch the transmission unit on, and transmit to the terminal apparatus , when a request to switch the transmission unit on is received by the Wi-Fi communication circuit , sink device related information, which is information on sink device capable of receiving a signal transmitted from the transmission unit , the sink device related information being acquired before the reception of the request to switch the transmission unit on; and communicate to/from a terminal apparatus , receive a request to switch the transmission unit on, and transmit to the terminal apparatus , when a request to switch the transmission unit on is received by the Wi-Fi communication circuit , sink device related information, which is information on sink device capable of receiving a signal transmitted from the transmission unit , the sink device related information being acquired before the reception of the request to switch the transmission unit on; and a detection unit configured to detect, when the sink device related information does not contain information on sink device , sink device in response to a command transmitted to the main apparatus ; a storage unit configured to store the sink device related information on sink device detected by the detection unit ; and a control unit configured to control operations of the transmission unit , the Wi-Fi communication circuit and the detection unit .
Method for operating a switching element (LHS), comprising the following steps: determining a temperature (Tmp) of the switching element (LHS), operating the switching element (LHS) depending on the determined temperature (Tmp); determining a permissible load current (Iz) through the switching element (LHS) depending on the determined temperature (Tmp), wherein the switching element (LHS) is operated using a load current (I) that is not greater than the permissible load current (Iz); characterized by the further steps of: comparing the determined temperature (Tmp) with a temperature threshold value (Tsw), actively heating the switching element (LHS) as long as the determined temperature (Tmp) is lower than the temperature threshold value (Tsw). determining a temperature (Tmp) of the switching element (LHS), operating the switching element (LHS) depending on the determined temperature (Tmp); determining a permissible load current (Iz) through the switching element (LHS) depending on the determined temperature (Tmp), wherein the switching element (LHS) is operated using a load current (I) that is not greater than the permissible load current (Iz); characterized by the further steps of: comparing the determined temperature (Tmp) with a temperature threshold value (Tsw), actively heating the switching element (LHS) as long as the determined temperature (Tmp) is lower than the temperature threshold value (Tsw). comparing the determined temperature (Tmp) with a temperature threshold value (Tsw), actively heating the switching element (LHS) as long as the determined temperature (Tmp) is lower than the temperature threshold value (Tsw).
A composition for a heat cycle system, comprising: a working fluid for heat cycle containing at least one compound selected from a hydrochlorofluoroolefin and a chlorofluoroolefin represented by the following formula (a), and a mixed refrigeration oil containing a naphthenic mineral oil and at least one refrigeration oil selected from a paraffinic mineral oil, an alkylbenzene, an olefin polymer, a polyol ester refrigeration oil, a polyvinyl ether refrigeration oil and a polyalkylene glycol refrigeration oil, wherein the mixed refrigeration oil has a kinematic viscosity at 40°C of 300 mm 2 /sec or lower, a mixture (mixed composition 1) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the working fluid for heat cycle of 10 mass% has a viscosity at 60°C of 10.5 mPa·s or higher, and a mixture (mixed composition 2) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the mixed refrigeration oil of 5 mass% has a two phase separation temperature of 0°C or lower: wherein R a is each independently a fluorine atom, a chlorine atom or a hydrogen atom, R b is (CR a 2 ) n Y, Y is CF 3 , n is 0 or 1, and at least one R a is a chlorine atom. a working fluid for heat cycle containing at least one compound selected from a hydrochlorofluoroolefin and a chlorofluoroolefin represented by the following formula (a), and a mixed refrigeration oil containing a naphthenic mineral oil and at least one refrigeration oil selected from a paraffinic mineral oil, an alkylbenzene, an olefin polymer, a polyol ester refrigeration oil, a polyvinyl ether refrigeration oil and a polyalkylene glycol refrigeration oil, wherein the mixed refrigeration oil has a kinematic viscosity at 40°C of 300 mm 2 /sec or lower, a mixture (mixed composition 1) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the working fluid for heat cycle of 10 mass% has a viscosity at 60°C of 10.5 mPa·s or higher, and a mixture (mixed composition 2) of the working fluid for heat cycle and the mixed refrigeration oil at a concentration of the mixed refrigeration oil of 5 mass% has a two phase separation temperature of 0°C or lower:
A pharmaceutical composition comprising a recombinant chimeric protein having amino acid sequences from at least, CD55 and CD59; or a nucleic acid encoding the recombinant chimeric protein, wherein the order of the sequences comprising the recombinant chimeric protein are CD55 and CD59, wherein the amino acid sequences from the CD59 protein are C-terminal to the amino acid sequences of the CD55 protein.
A fixing unit for fixing an insulating element to a container for cryogenic substances, with a holding element which is firmly connectable to a container wall of the container and which is displaceable to the insulating element with at least one component at right angles to the container wall , wherein the holding element can be guided at least partially within a blind hole , wherein the blind hole is incorporated into the insulating element and arranged on a side of the insulating element , facing the container wall , characterized in that a snap-fit connection is provided against loosening of the holding element from the blind hole .
A computer-readable storage medium comprising instructions which, when executed by a computer of a teleoperational medical system including a medical instrument , perform a method comprising: receiving an input instruction from an operator input device movement; determining a measured factor within a patient anatomy or in an operator frame; determining a first motion scaling parameter based on the measured factor, wherein a value of the first motion scaling parameter is based on a value of the measured factor; mapping the input instruction to an output instruction for a medical instrument movement within an anatomical frame, wherein the mapping includes applying the first motion scaling parameter to the input instruction to create the output instruction; moving the medical instrument according to the output instruction; and determining a second motion scaling parameter based on a change in the value of the measured factor, wherein the second motion scaling parameter is different from the first motion scaling parameter. receiving an input instruction from an operator input device movement; determining a measured factor within a patient anatomy or in an operator frame; determining a first motion scaling parameter based on the measured factor, wherein a value of the first motion scaling parameter is based on a value of the measured factor; mapping the input instruction to an output instruction for a medical instrument movement within an anatomical frame, wherein the mapping includes applying the first motion scaling parameter to the input instruction to create the output instruction; moving the medical instrument according to the output instruction; and determining a second motion scaling parameter based on a change in the value of the measured factor, wherein the second motion scaling parameter is different from the first motion scaling parameter.
A system for generating steam, the system comprising: - a wall structure forming a steam chamber ; - an opening formed in a wall portion of said wall structure ; and - a cover member cooperating with said wall portion such that the cover member can take a first position (P1) where the cover member covers the opening and a second position (P2) where the cover member uncovers the opening ; wherein said opening has a cross-section surface being at least 50% of the cross-section surface of said wall portion ; characterised in that the cover member comprises a steam outlet and the system comprises a nozzle , such that when the cover member is in said first position (P1), the steam outlet faces said opening and said nozzle fluidly couples the opening with the steam outlet to provide a passage configured to direct the steam from the steam chamber to the steam outlet . - a wall structure forming a steam chamber ; - an opening formed in a wall portion of said wall structure ; and - a cover member cooperating with said wall portion such that the cover member can take a first position (P1) where the cover member covers the opening and a second position (P2) where the cover member uncovers the opening ;
Assembly (E) comprising packaging for biocontrol agents for protecting cultivations and a case for protecting this packaging , the case comprising a protective wall suitable for surrounding the packaging so as to protect the packaging against heat, water and mud, the protective wall comprising an opening suitable for enabling the biocontrol agents to emerge from the case , the assembly being characterised in that the protective wall is able to move between a folded position in which the protective wall is pressed against the packaging and a deployed position in which the protective wall extends at least partly at a distance from the packaging .
Steering column module for a motor vehicle , comprising at least one steering column stalk which has a longitudinal axis (A), and comprising a base module on which the steering column stalk is movably arranged, and comprising a toothing coupling device which has a first toothing element , which is a gear, and the first toothing element is mounted rotatably about a rotation axis (B) and is arranged in the base module , and has a second toothing element which is connected to the steering column stalk and meshes with the first toothing element , wherein, depending on a movement of the steering column stalk , a movement of the first toothing element can be implemented, and depending on this movement the movement of the steering column stalk can be identified, wherein the steering column stalk has a coupling section which is arranged in the base module , wherein the second toothing element is in the form of an arcuate toothed rack which is arranged on a side wall of the coupling section and is oriented projecting in a wing-like manner from the side wall , so that the second toothing element is arranged without overlapping with the longitudinal axis (A) of the steering column stalk, wherein the steering column module has an evaluation unit which is arranged in the base module and with which a movement of the first toothing element caused by the movement of the steering column stalk can be magnetically detected, wherein a magnet element of the evaluation unit is fixedly connected to the first toothing element , and a magnetic field detection element of the evaluation unit is arranged externally with respect to the first toothing element , characterized in that the first toothing is mounted axially movably in the direction of the rotation axis (B), wherein the steering column module has a driver which is coupled to the steering column stalk , wherein, in the case of a second operating direction of the steering column stalk , the first toothing element can be displaced in the axial direction by the driver , wherein this second operating direction is identified by the evaluation unit depending on this displacement movement being identified.
A diagnostic method to distinguish Alzheimer's patient subjects, comprising determining in a plasma sample of said subject the levels of each of the metabolites of the list consisting of: aminoadipic acid (alpha-AAA), butane-1,4-diamine (putrescine), arginine, ornithine, glutamic acid, Lyso PC a C18:0, PC aa C34:3, PC ae C30:0, and PC ae C36:0 and the presence of allele APOE4, and comparing the levels of said markers with respect to the levels of the same markers in a healthy control patient or with respect to a reference value, wherein the subject is classified as suffering Alzheimer's disease or as having an increased risk of suffering from Alzheimer's disease if there is an increased level(s) of ornithine, putrescine, PC aa C34:3, and PC ae C30:0 and presence of allele APOE4 and a decreased level(s) of L-Arginine, L-Glutamic Acid, Alpha-AAA, Lyso PC a C18:0 and PC ae C36:0.