mhurhangee/patent-ind-claim-en huggingface dataset:
Stator segment (10a-h) for a direct drive electrical generator having a laminated structure including at least a first layer (20a-h) and a second layer (30a-h), each of the first layer (20a-h) and the second layer (30a-h) including a respective plurality of circumferential pieces (101a-h, 102ah, 103a-h, 104a-h, 105a-h, 106a-h, 107a-h, 108a-h) aligned along a circumferential direction (X) of the stator segment (10a-h) between a first circumferential end (11a-h) and a second circumferential end (12a-h), wherein the first layer (20a-h) and the second layer (30a-h) are stacked along an axial longitudinal direction (Y) of the stator segment (10a-h) in such a way that a first circumferential piece (101a-h) of the first layer (20a-h) is superimposed to at least a second circumferential piece (102a-h) of the second layer (30a-h), the first circumferential piece (101a-h) and the circumferential second piece (102a-h) having respective different circumferential lengths (L1, L2).
A secondary battery , comprising: an electrode assembly ; and a pouch case in which the electrode assembly is embedded, wherein the pouch case includes a first case part formed with a first accommodating part in which a part of the electrode assembly is embedded, and a second case part formed with a second accommodating part in which the remaining part of the electrode assembly is accommodated, the first case part and the second case part are in contact with each other in an edge portion surrounding the first and second accommodating parts and are sealed by a sealing part formed in a band shape on at least a part of the edge portion , the sealing part includes a first sealing part having a first width (W1) and a second sealing part having a second width (W2) smaller than the first width (W1), and a central portion of the second sealing part in a longitudinal direction coincides with a central portion of a long side of the electrode assembly , wherein: the sealing part further includes a first inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the electrode assembly from the outside of the pouch case , characterised by a second inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the outside of the pouch case from the electrode assembly . an electrode assembly ; and a pouch case in which the electrode assembly is embedded, wherein the pouch case includes a first case part formed with a first accommodating part in which a part of the electrode assembly is embedded, and a second case part formed with a second accommodating part in which the remaining part of the electrode assembly is accommodated, the first case part and the second case part are in contact with each other in an edge portion surrounding the first and second accommodating parts and are sealed by a sealing part formed in a band shape on at least a part of the edge portion , the sealing part includes a first sealing part having a first width (W1) and a second sealing part having a second width (W2) smaller than the first width (W1), and a central portion of the second sealing part in a longitudinal direction coincides with a central portion of a long side of the electrode assembly , wherein: the sealing part further includes a first inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the electrode assembly from the outside of the pouch case , characterised by a second inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the outside of the pouch case from the electrode assembly . the sealing part further includes a first inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the electrode assembly from the outside of the pouch case , characterised by a second inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the outside of the pouch case from the electrode assembly .
Method for inspecting a container body adapted and configured to hold substrates, comprising the steps of - directing light from a light source onto a reflector element positioned within an interior space of the container body , such that the light is reflected to illuminate at least one interior surface of the container body , wherein the light is reflected by the reflector element in a diffuse manner - generating at least one image of the at least one interior surface by means of at least one camera , and - evaluating the state of the container body on the basis of the at least one image. - directing light from a light source onto a reflector element positioned within an interior space of the container body , such that the light is reflected to illuminate at least one interior surface of the container body , wherein the light is reflected by the reflector element in a diffuse manner - generating at least one image of the at least one interior surface by means of at least one camera , and - evaluating the state of the container body on the basis of the at least one image.
A protection system for a wind turbine power system connected to a power grid , the wind turbine power system having a generator with a stator and a rotor and a power converter having a rotor-side converter , a grid-side converter , and a DC link configured therebetween, the protection system comprising: a main brake circuit having at least one brake resistive element and at least one brake switch element, the brake resistive element coupled to at least one of the DC link of the power converter , windings of the rotor of the generator , or windings of the stator of the generator via the brake switch element; a battery system coupled to the generator via a battery switch element , wherein the battery system is coupled to two phases or three phases of the rotor , the battery system comprising a battery resistive element ; and a controller configured to disconnect the power converter and the generator from the power grid and connect at least one of the main brake circuit or the battery system to the generator in response to detecting an electromagnetic (EM) torque loss event so as to generate an EM torque. a main brake circuit having at least one brake resistive element and at least one brake switch element, the brake resistive element coupled to at least one of the DC link of the power converter , windings of the rotor of the generator , or windings of the stator of the generator via the brake switch element; a battery system coupled to the generator via a battery switch element , wherein the battery system is coupled to two phases or three phases of the rotor , the battery system comprising a battery resistive element ; and a controller configured to disconnect the power converter and the generator from the power grid and connect at least one of the main brake circuit or the battery system to the generator in response to detecting an electromagnetic (EM) torque loss event so as to generate an EM torque.
A method of manufacturing a particulate fragrance enhancer, comprising: coating a particulate core with a coating agent and a first fragrance in a mixing vessel to form a coated particulate core; and applying a second fragrance to the coated particulate core to form the particulate fragrance enhancer, said second fragrance being an encapsulated fragrance, wherein the manufacturing process is performed without melting the particulate core or any other components that amount to 5% or more of the particulate fragrance enhancer, such that the second fragrance is not embedded within a molten composition, and wherein the coating agent is a member selected from the group consisting of: propylene glycol, glycerol, butylene glycol, sorbitol, polyethylene glycol, and combinations thereof. coating a particulate core with a coating agent and a first fragrance in a mixing vessel to form a coated particulate core; and applying a second fragrance to the coated particulate core to form the particulate fragrance enhancer, said second fragrance being an encapsulated fragrance, wherein the manufacturing process is performed without melting the particulate core or any other components that amount to 5% or more of the particulate fragrance enhancer, such that the second fragrance is not embedded within a molten composition, and wherein the coating agent is a member selected from the group consisting of: propylene glycol, glycerol, butylene glycol, sorbitol, polyethylene glycol, and combinations thereof.
A magnetic impedance sensor in which an alternate current voltage is generated in response to an external magnetic field intensity around a magneto-impedance element by applying an electrical current from an electrical current source to said magneto-impedance element , and the external magnetic field intensity around said magneto-impedance element is measured, characterized in that said electrical current source comprises a pulse oscillator means connected to said magneto-impedance element and applying an electrical pulse current to said magneto-impedance element , and wherein the electrical pulse current comprises a basic pulse current for generating the alternate current voltage in response to the external magnetic field around said magneto-impedance element and a compensating pulse current for compensating the linear characteristic on opposite polarity to said basic pulse current and the basic pulse current and the compensating pulse current are alternately applied to said magneto-impedance element .
A method of valve leaflet manufacture, comprising: applying polymer in a liquid state to a valve frame and a leaflet formation structure by dip-coating the valve frame by submerging at least a portion of the valve frame and the leaflet formation structure in a reservoir filled with the polymer in the liquid state; loading the valve frame and the leaflet formation structure , with the polymer in the liquid state, into a first environmental humidity chamber having a humidity sensor and control equipment to maintain a controlled humidity environment greater than 50% and less than 95%; automatically moving the valve frame and the leaflet formation structure around the environmental humidity chamber for a period of time during which the humidity within the environmental humidity chamber is controlled and during which the polymer at least partially cures; the method further comprising: removing the valve frame and the leaflet formation structure from the first environmental humidity chamber after the period of time, wherein the polymer is only partially cured; inserting the valve frame and the leaflet formation structure into a second environmental humidity chamber ; and heating the valve frame and the leaflet formation structure in the second environmental humidity chamber until the polymer cures. applying polymer in a liquid state to a valve frame and a leaflet formation structure by dip-coating the valve frame by submerging at least a portion of the valve frame and the leaflet formation structure in a reservoir filled with the polymer in the liquid state; loading the valve frame and the leaflet formation structure , with the polymer in the liquid state, into a first environmental humidity chamber having a humidity sensor and control equipment to maintain a controlled humidity environment greater than 50% and less than 95%; automatically moving the valve frame and the leaflet formation structure around the environmental humidity chamber for a period of time during which the humidity within the environmental humidity chamber is controlled and during which the polymer at least partially cures; the method further comprising: removing the valve frame and the leaflet formation structure from the first environmental humidity chamber after the period of time, wherein the polymer is only partially cured; inserting the valve frame and the leaflet formation structure into a second environmental humidity chamber ; and heating the valve frame and the leaflet formation structure in the second environmental humidity chamber until the polymer cures. removing the valve frame and the leaflet formation structure from the first environmental humidity chamber after the period of time, wherein the polymer is only partially cured; inserting the valve frame and the leaflet formation structure into a second environmental humidity chamber ; and heating the valve frame and the leaflet formation structure in the second environmental humidity chamber until the polymer cures.
Starting device , in particular a starter, for starting an internal combustion engine, at least comprising a freewheel gearbox , in which an axial movement of an inner part is limited by a retaining disc acting as a stop, and in which a guide disc is arranged axially between a front geometry of the retaining disc and a front geometry of an outer part orientated towards the front geometry of the retaining disc , wherein the guide disc is arranged at least partially recessed in at least one recess in at least one of the front geometries , characterized in that the guide disc is arranged completely in the recess at least in axial direction (A), so that the front geometries are adjacent to each another axially at their front sides.
Blade for a turbine blade , comprising a suction-side side wall and a pressure-side side wall which enclose a cavity at least partially in a manner which extends along a profile centre line from a common leading edge to a common trailing edge and in a span width direction from a root-side end to a top-side end , a first impingement cooling wall which is provided with impingement cooling openings for the impingement cooling of the leading edge and at least one further impingement cooling wall which is also provided with impingement cooling openings for the impingement cooling of a section of the suction-side and/or pressure-side side wall being provided along the span width in the interior, the impingement cooling openings of the first impingement cooling wall and the impingement cooling openings of the at least one second impingement cooling wall being connected in series in terms of flow, and an impingement cooling space being provided between the relevant impingement cooling wall and the inner side of the associated side wall , and in each case one collecting space being provided downstream of the relevant impingement cooling space , which collecting space adjoins the downstream further impingement cooling wall in a directly upstream manner, characterized in that the collecting space is delimited partially by a projection which is impingement cooled, by outlet openings which are close to the side wall being arranged in a rib which, in accordance with a cross-sectional plane, extends from a suction-side rib end to a pressure-side rib end .
A device, wherein the device comprises: a main communications module , configured to receive a first part of a frame, wherein the first part comprises an L-SIG field and at least one OFDM symbol located following the L-SIG field, and information carried in the at least one OFDM symbol comprises indication information used to indicate whether the frame is a, wake-up receiver, WUR frame; and a processing module , configured to: determine, based on the at least one OFDM symbol, whether the frame is a WUR frame; and if determining that the frame is a WUR frame, determine, based on at least the information carried in the at least one OFDM symbol, whether to continue receiving a second part of the frame by using the main communications module, wherein the second part of the frame is located following the first part, wherein the L-SIG field comprises an L-LENGTH field, and if the frame is a WUR frame, the L-LENGTH field is used to indicate a frame type of the WUR frame. a main communications module , configured to receive a first part of a frame, wherein the first part comprises an L-SIG field and at least one OFDM symbol located following the L-SIG field, and information carried in the at least one OFDM symbol comprises indication information used to indicate whether the frame is a, wake-up receiver, WUR frame; and a processing module , configured to: determine, based on the at least one OFDM symbol, whether the frame is a WUR frame; and if determining that the frame is a WUR frame, determine, based on at least the information carried in the at least one OFDM symbol, whether to continue receiving a second part of the frame by using the main communications module, wherein the second part of the frame is located following the first part, wherein the L-SIG field comprises an L-LENGTH field, and if the frame is a WUR frame, the L-LENGTH field is used to indicate a frame type of the WUR frame.
A process for producing EDA from a mixture comprising water (H2O), ethylenediamine (EDA) and N-methylethylenediamine (NMEDA) by feeding the mixture into a rectification column, wherein the rectification column is operated at the top pressure in the range of 5.0 to 7.5 bar and the weight ratio EDA to NMEDA in the mixture comprising water (H2O), ethylenediamine (EDA) and N-methylethylenediamine (NMEDA) fed into the rectification column is 1:0.0005 to 1:0.2.
A method of encryption, the method comprising: determining, by a server according to resources available to the server, a first set of one or more levels of data encryption that the server is capable of handling on data to be communicated with a client for a first time instance, wherein a level of data encryption comprises a type of encryption and a strength of the type of data encryption; receiving, by the server from the client , a second set of one or more levels of data encryption that the client is capable of handling on the data according to resources available to the client for the first time instance; selecting, by the server , a first level of data encryption for the first time instance that is in both the determined first set of one or more levels of data encryption and the received second set of one or more levels of data encryption, with which the server and the client agree to proceed; and identifying, by the server in communication with the client following an interval, an updated level of data encryption for a second time instance, according to both another first set of one or more levels of data encryption for the second time instance and another second set of one or more levels of data encryption for the second time instance, with which the server and the client agree to proceed. determining, by a server according to resources available to the server, a first set of one or more levels of data encryption that the server is capable of handling on data to be communicated with a client for a first time instance, wherein a level of data encryption comprises a type of encryption and a strength of the type of data encryption; receiving, by the server from the client , a second set of one or more levels of data encryption that the client is capable of handling on the data according to resources available to the client for the first time instance; selecting, by the server , a first level of data encryption for the first time instance that is in both the determined first set of one or more levels of data encryption and the received second set of one or more levels of data encryption, with which the server and the client agree to proceed; and identifying, by the server in communication with the client following an interval, an updated level of data encryption for a second time instance, according to both another first set of one or more levels of data encryption for the second time instance and another second set of one or more levels of data encryption for the second time instance, with which the server and the client agree to proceed.
Magnetic induction measuring device comprising a magnetoresistive sensor having a first dielectric substrate coated with thin polycrystalline material film , whose electrical resistance varies depending on the magnetic field and temperature, wherein on the thin polycrystalline material film are formed electrically conductive contact pads to which connecting leads are attached for connecting a power source in order to create a series electrical circuit through the thin polycrystalline material film located between contact pads , wherein the entire device is covered with sealing filler , characterized in that the device is provided with a resistive temperature sensor, comprising a second dielectric substrate coated with thin temperature-sensitive resistive material film which is insensitive to the magnetic field and to which connecting leads are attached for connecting a power source in order to create series electrical circuit through the thin temperature-sensitive resistive film , wherein the first substrate of the magnetoresistive sensor and the second substrate of the resistive sensor are positioned opposite to each other in such a manner that their sides, coated by corresponding said thin films and are parallel and face one another and are separated from each another by dielectric thermally conductive intermediate layer .
Use of a label gene sequence in the preparation of an H7 avian influenza vaccine strain which differentiates influenza A virus infection from vaccination, the label gene sequence containing a DNA sequence for coding an influenza B virus NA protein extracellular region amino acid sequence, or containing a DNA sequence for coding an amino acid sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the extracellular region amino acid sequence set forth in SEQ ID NO: 1; alternatively, the label gene sequence containing a DNA sequence for coding the extracellular region amino acid sequence in influenza B virus NA gene, or containing a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence set forth in SEQ ID NO: 2; alternatively, the label gene sequence is a DNA sequence for coding influenza B virus NA protein, or a DNA sequence for coding an amino acid sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homologywith the NA protein amino acid sequence of strain B/Massachusetts/2/2012 or strain B/Brisbane/60/2008; alternatively, the label gene sequence is a DNA sequence of influenza B virus NA gene, or a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence of strain B/Massachusetts/2/2012 or strain B/Brisbane/60/2008. alternatively, the label gene sequence containing a DNA sequence for coding the extracellular region amino acid sequence in influenza B virus NA gene, or containing a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence set forth in SEQ ID NO: 2; alternatively, the label gene sequence is a DNA sequence for coding influenza B virus NA protein, or a DNA sequence for coding an amino acid sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homologywith the NA protein amino acid sequence of strain B/Massachusetts/2/2012 or strain B/Brisbane/60/2008; alternatively, the label gene sequence is a DNA sequence of influenza B virus NA gene, or a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence of strain B/Massachusetts/2/2012 or strain B/Brisbane/60/2008.