mhurhangee/patent-ind-claim-en huggingface dataset:
A call processing method, applied to a customized alerting tone server, and comprising: receiving a call request sent by a calling terminal, and forwarding the call request to a called terminal; receiving a called terminal ringing message, and playing a customized alerting tone audio stream and a customized alerting tone video stream to the calling terminal; receiving a called terminal off-hook message, and performing call media resource negotiation and customized alerting tone video resource negotiation with the calling terminal; and the method further characterised by : stopping playing the customized alerting tone audio stream to the calling terminal, and playing the customized alerting tone video stream to the calling terminal. receiving a call request sent by a calling terminal, and forwarding the call request to a called terminal; receiving a called terminal ringing message, and playing a customized alerting tone audio stream and a customized alerting tone video stream to the calling terminal; receiving a called terminal off-hook message, and performing call media resource negotiation and customized alerting tone video resource negotiation with the calling terminal; and the method further characterised by : stopping playing the customized alerting tone audio stream to the calling terminal, and playing the customized alerting tone video stream to the calling terminal.
An adapter apparatus that is detachably attached between an image capturing apparatus and a lens apparatus and is configured to communicate with the image capturing apparatus and the lens apparatus , the adapter apparatus comprising: a communication means configured to support a plurality of communication methods for a communication with the lens apparatus and control the communication with the lens apparatus ; and a setting means for switching a communication setting in the adapter apparatus between a first setting and a second setting, the first setting being compliant with a first communication method as a communication method used in an initial communication to be performed as a communication at a start-up of the lens apparatus , and the second setting being compliant with a second communication method different from the first communication method, wherein the lens apparatus is configured to switch a power state between a first power state in which the lens apparatus is communicable with the adapter apparatus and a second power state in which a power consumption is smaller than that in the first power state, and wherein, in a case where the communication setting in the adapter apparatus is set to the second setting, the setting means switches the communication setting in the adapter apparatus to the first setting and the communication means transmits, to the lens apparatus , a signal for switching the power state of the lens apparatus from the first power state to the second power state through the first communication method. a communication means configured to support a plurality of communication methods for a communication with the lens apparatus and control the communication with the lens apparatus ; and a setting means for switching a communication setting in the adapter apparatus between a first setting and a second setting, the first setting being compliant with a first communication method as a communication method used in an initial communication to be performed as a communication at a start-up of the lens apparatus , and the second setting being compliant with a second communication method different from the first communication method, wherein the lens apparatus is configured to switch a power state between a first power state in which the lens apparatus is communicable with the adapter apparatus and a second power state in which a power consumption is smaller than that in the first power state, and wherein, in a case where the communication setting in the adapter apparatus is set to the second setting, the setting means switches the communication setting in the adapter apparatus to the first setting and the communication means transmits, to the lens apparatus , a signal for switching the power state of the lens apparatus from the first power state to the second power state through the first communication method.
Method for lowering the formaldehyde emissions of melamine/formaldehyde polymer moldings made from melamine/formaldehyde foams by impregnating the melamine/formaldehyde polymer moldings made from melamine/formaldehyde foams with an aqueous solution of at least one formaldehyde scavenger selected from acetoacetamide and compounds containing, preferably covalently linked, acetoacetamide groups.
A processor for an endoscope comprising: an image acquisition unit that acquires an endoscopic image of a subject captured using first system information including setting information for setting the image acquisition unit ; a calculation unit that calculates parameter on the basis of the endoscopic image acquired by the image acquisition unit ; and a first learning model that outputs a discrimination result of discriminating a part of the subject in a case in which the parameter calculated by the calculation unit is input; characterized by a second learning model that outputs second system information including setting information for setting the image acquisition unit in a case in which the parameter calculated by the calculation unit and the discrimination result output by the first learning model are input; and a determination unit that determines a difference between the second system information output by the second learning model and the first system information. an image acquisition unit that acquires an endoscopic image of a subject captured using first system information including setting information for setting the image acquisition unit ; a calculation unit that calculates parameter on the basis of the endoscopic image acquired by the image acquisition unit ; and a first learning model that outputs a discrimination result of discriminating a part of the subject in a case in which the parameter calculated by the calculation unit is input; characterized by a second learning model that outputs second system information including setting information for setting the image acquisition unit in a case in which the parameter calculated by the calculation unit and the discrimination result output by the first learning model are input; and a determination unit that determines a difference between the second system information output by the second learning model and the first system information.
A drive unit for a powertrain of an electrically driveable motor vehicle, in particular a hybrid motor vehicle, comprising a first electric machine having a first shaft , wherein the first shaft is a rotor support of a rotor of the first electric machine , to which the rotor is connected in a rotationally fixed manner, a second electric machine , and an output shaft , wherein a rotor of the second electric machine can be connected to the output shaft in a rotationally fixed manner, the output shaft is a hollow shaft, wherein the first shaft is arranged in sections radially within the output shaft and is connectable to a separating clutch , by which the rotor of the first electric machine is connectable to the output shaft for torque transfer, wherein the rotor of one of the electric machines is supported at least indirectly radially on the rotor of the other electric machine by means of a third rotary bearing , wherein the output shaft is mounted in the housing of the drive unit by two rotary bearings , wherein the two rotary bearings are arranged at axially opposite end regions of the output shaft , and wherein the first shaft is supported by means of exactly two rotary bearings , more specifically, at an end region the first shaft is supported by means of a first rotary bearing on a housing wall and at an axially opposite end region by means of the third rotary bearing on the output shaft . a second electric machine , and an output shaft , wherein a rotor of the second electric machine can be connected to the output shaft in a rotationally fixed manner, the output shaft is a hollow shaft, wherein the first shaft is arranged in sections radially within the output shaft and is connectable to a separating clutch , by which the rotor of the first electric machine is connectable to the output shaft for torque transfer, wherein the rotor of one of the electric machines is supported at least indirectly radially on the rotor of the other electric machine by means of a third rotary bearing , wherein the output shaft is mounted in the housing of the drive unit by two rotary bearings , wherein the two rotary bearings are arranged at axially opposite end regions of the output shaft , and wherein the first shaft is supported by means of exactly two rotary bearings , more specifically, at an end region the first shaft is supported by means of a first rotary bearing on a housing wall and at an axially opposite end region by means of the third rotary bearing on the output shaft .
A method for coating a vascular endoprosthesis, comprising the following steps: a1) at least partial wetting of the vascular endoprosthesis with a first solution of a hydrophobic active ingredient, and b) at least partial wetting of the areas of the vascular endoprosthesis wetted with the solution of the active ingredient with a liquid comprising water and/or at least one alcohol, wherein before the wetting of the vascular endoprosthesis with the liquid comprising water and/or at least one alcohol a drying of the vascular endoprosthesis and a crystallization of the active ingredient takes place, wherein the liquid comprising water and/or at least one alcohol comprises an alcohol and/or a ketone. a1) at least partial wetting of the vascular endoprosthesis with a first solution of a hydrophobic active ingredient, and b) at least partial wetting of the areas of the vascular endoprosthesis wetted with the solution of the active ingredient with a liquid comprising water and/or at least one alcohol,
A refrigerator comprising: an ice maker comprising: an ice making tray rotatably provided therein; a driving unit connected with the ice making tray , to rotate the ice making tray selectively; and a cooling member received in the ice making tray ; wherein the ice making tray is twistably rotated, and the cooling member is twistable corresponding to the twistable rotation of the ice making tray , characterized in that the cooling member is connected to the ice making tray and contactable with water supplied to the ice making tray . an ice maker comprising: an ice making tray rotatably provided therein; a driving unit connected with the ice making tray , to rotate the ice making tray selectively; and a cooling member received in the ice making tray ; wherein the ice making tray is twistably rotated, and the cooling member is twistable corresponding to the twistable rotation of the ice making tray , characterized in that the cooling member is connected to the ice making tray and contactable with water supplied to the ice making tray .
A process for preparing an amorphous rifaximin product, the process comprising: a) dissolving crude rifaximin in hot absolute ethanol; b) precipitating the rifaximin by cooling the solution; c) collecting the solid by filtering and washing with absolute ethanol; and d) drying the solid characterised in that the crude rifaximin has a water content of between 4 and 7% and step (a) is performed under stirring at a temperature of 40-60oC. a) dissolving crude rifaximin in hot absolute ethanol; b) precipitating the rifaximin by cooling the solution; c) collecting the solid by filtering and washing with absolute ethanol; and d) drying the solid
A slide device , comprising: an upper rail to which a slide seat for a vehicle is attached; a slide rail to which the upper rail is slidably attached; a light emitter ; and an attachment portion that attaches the light emitter to the upper rail , characterized in that the attachment portion is attached to the upper rail such that the light emitter is arranged outside the slide rail . an upper rail to which a slide seat for a vehicle is attached; a slide rail to which the upper rail is slidably attached; a light emitter ; and an attachment portion that attaches the light emitter to the upper rail , characterized in that
A method of location determination performed by an electronic device including a WiFi transceiver and a memory storing a neural network, the method comprising: receiving, via the WiFi transceiver, a first WiFi fingerprint associated with a first person and a first environment, the first person in the first environment, wherein the first person is an unregistered user; obtaining (2-2), using a shared feature extraction layer (5-32) of the neural network and based on the first fingerprint, a first set of feature data (2-21); determining (2-3), using a reconstruction layer (5-36) of the neural network and based on the first set of feature data (2-21) from the shared feature extraction layer (5-32), a reconstruction loss (5-38) associated with the first person and the first fingerprint; when the reconstruction loss (5-38) is at or below a threshold: classifying (2-5), using a classification layer (5-35) of the neural network and based on the first set of feature data (2-21) from the shared feature extraction layer (5-32), the first fingerprint to obtain a first estimated location label of the first person, and outputting, by visible or audible means, an indicator of the first estimated location label (2-51) of the first person; when the reconstruction loss (5-38) is above the threshold, performing a registration (2-4) of the first person. receiving, via the WiFi transceiver, a first WiFi fingerprint associated with a first person and a first environment, the first person in the first environment, wherein the first person is an unregistered user; obtaining (2-2), using a shared feature extraction layer (5-32) of the neural network and based on the first fingerprint, a first set of feature data (2-21); determining (2-3), using a reconstruction layer (5-36) of the neural network and based on the first set of feature data (2-21) from the shared feature extraction layer (5-32), a reconstruction loss (5-38) associated with the first person and the first fingerprint; when the reconstruction loss (5-38) is at or below a threshold: classifying (2-5), using a classification layer (5-35) of the neural network and based on the first set of feature data (2-21) from the shared feature extraction layer (5-32), the first fingerprint to obtain a first estimated location label of the first person, and outputting, by visible or audible means, an indicator of the first estimated location label (2-51) of the first person; when the reconstruction loss (5-38) is above the threshold, performing a registration (2-4) of the first person. classifying (2-5), using a classification layer (5-35) of the neural network and based on the first set of feature data (2-21) from the shared feature extraction layer (5-32), the first fingerprint to obtain a first estimated location label of the first person, and outputting, by visible or audible means, an indicator of the first estimated location label (2-51) of the first person; when the reconstruction loss (5-38) is above the threshold, performing a registration (2-4) of the first person.
A method for use in identifying and outputting locations of electrodes on a display, comprising: defining relative positions of physical electrodes (33 1 -33 4 ) in a catheter shape model , wherein the relative positions correspond to spacings of the physical electrodes of a physical catheter ; predicting locations of model electrodes (30 1 -30 4 ) in a patient reference frame by utilizing the catheter shape model including locations of model electrodes (30 1 -30 4 ) and a model magnetic sensor (28 1 ) in a catheter reference frame , wherein the model electrodes (30 1 -30 4 ) and model magnetic sensor (28 1 ) correspond to a set of the physical electrodes (33 1 -33 4 ) and a magnetic sensor (28 2 ) of the physical catheter disposed within the patient reference frame; generating predicted impedance responses (31 1 -31 4 ) for the predicted model electrode locations by applying an impedance model of an applied electrical potential field to the model electrode locations, wherein the impedance model transforms each model electrode location to a predicted impedance response; measuring impedance responses (35 1 -35 4 ) for the physical electrodes (33 1 -33 4 ) of the physical catheter in response to the applied electrical potential field; and based at least on the predicted impedance responses (31 1 -31 4 ) and the measured impedance responses (35 1 -35 4 ), generating calculated locations (37 1 -37 4 ) of the physical electrodes ; and outputting the calculated locations of the physical electrodes (33 1 -33 4 ) to the display . defining relative positions of physical electrodes (33 1 -33 4 ) in a catheter shape model , wherein the relative positions correspond to spacings of the physical electrodes of a physical catheter ; predicting locations of model electrodes (30 1 -30 4 ) in a patient reference frame by utilizing the catheter shape model including locations of model electrodes (30 1 -30 4 ) and a model magnetic sensor (28 1 ) in a catheter reference frame , wherein the model electrodes (30 1 -30 4 ) and model magnetic sensor (28 1 ) correspond to a set of the physical electrodes (33 1 -33 4 ) and a magnetic sensor (28 2 ) of the physical catheter disposed within the patient reference frame; generating predicted impedance responses (31 1 -31 4 ) for the predicted model electrode locations by applying an impedance model of an applied electrical potential field to the model electrode locations, wherein the impedance model transforms each model electrode location to a predicted impedance response; measuring impedance responses (35 1 -35 4 ) for the physical electrodes (33 1 -33 4 ) of the physical catheter in response to the applied electrical potential field; and based at least on the predicted impedance responses (31 1 -31 4 ) and the measured impedance responses (35 1 -35 4 ), generating calculated locations (37 1 -37 4 ) of the physical electrodes ; and outputting the calculated locations of the physical electrodes (33 1 -33 4 ) to the display .
A system for increasing solid oxide fuel cell (SOFC) efficiency, the system comprising: a series of SOFC stacks ; a fuel flow path through the series of SOFC stacks ; and an air flow path through the series of SOFC stacks , wherein, between two sequential SOFC stacks in the series of SOFC stacks : in the fuel flow path , fuel exhaust that is output from a first SOFC stack of the two sequential SOFC stacks is input into a second SOFC stack of the two sequential SOFC stacks , in the air flow path , air exhaust that is output from the first SOFC stack is input into the second SOFC stack , and the fuel flow path comprises a fuel inlet positioned for injecting fuel into the fuel flow path between the two sequential SOFC stacks . a series of SOFC stacks ; a fuel flow path through the series of SOFC stacks ; and an air flow path through the series of SOFC stacks , wherein, between two sequential SOFC stacks in the series of SOFC stacks : in the fuel flow path , fuel exhaust that is output from a first SOFC stack of the two sequential SOFC stacks is input into a second SOFC stack of the two sequential SOFC stacks , in the air flow path , air exhaust that is output from the first SOFC stack is input into the second SOFC stack , and the fuel flow path comprises a fuel inlet positioned for injecting fuel into the fuel flow path between the two sequential SOFC stacks . in the fuel flow path , fuel exhaust that is output from a first SOFC stack of the two sequential SOFC stacks is input into a second SOFC stack of the two sequential SOFC stacks , in the air flow path , air exhaust that is output from the first SOFC stack is input into the second SOFC stack , and the fuel flow path comprises a fuel inlet positioned for injecting fuel into the fuel flow path between the two sequential SOFC stacks .
A piston for pumping fluid, the piston comprising: a piston rod having a piston rod body having an upstream end and a downstream end and elongated along a longitudinal axis; a piston head attached to the piston rod and having a downstream aperture , the upstream end of the piston rod extending into the downstream aperture of the piston head; and characterized by one or more flutes at least partially disposed between the piston rod and the piston head; wherein each of the one or more flutes respectively comprises an open groove that extends along one of an exterior of the piston rod body and an interior of the piston head; and wherein fluid flows between the piston rod and the piston head within the one or more flutes during pumping. a piston rod having a piston rod body having an upstream end and a downstream end and elongated along a longitudinal axis; a piston head attached to the piston rod and having a downstream aperture , the upstream end of the piston rod extending into the downstream aperture of the piston head; and characterized by one or more flutes at least partially disposed between the piston rod and the piston head; wherein each of the one or more flutes respectively comprises an open groove that extends along one of an exterior of the piston rod body and an interior of the piston head; and wherein fluid flows between the piston rod and the piston head within the one or more flutes during pumping.
Method of increasing an endotherm melt peak position of an edible fat to an increased value compared to a starting value, said increased value being 40 degrees Celsius or higher, said endotherm melt peak position being measured by Differential Scanning Calorimetry by heating samples of 10 +/- 1 mg of said edible fat from 20 degrees Celsius to 65 degrees Celsius at a rate of 3 degrees Celsius per minute to produce a melting thermogram defining said endotherm melt peak position, the method comprising the steps of: a) melting the edible fat by applying heat, b) storing the edible fat at a temperature below said increased value of said endotherm melt peak position for at least 5 hours at a temperature of at least 30 degrees Celsius, whereby an increase in said endotherm melt peak position for said edible fat is obtained when compared to said starting value, wherein said edible fat comprises SatOSat-triglycerides in an amount of 40 - 99% by weight, wherein said edible fat comprises triglycerides obtained from non-vegetable sources, wherein Sat stands for a saturated fatty acid, and O stands for oleic acid. a) melting the edible fat by applying heat, b) storing the edible fat at a temperature below said increased value of said endotherm melt peak position for at least 5 hours at a temperature of at least 30 degrees Celsius, whereby an increase in said endotherm melt peak position for said edible fat is obtained when compared to said starting value, wherein said edible fat comprises SatOSat-triglycerides in an amount of 40 - 99% by weight, wherein said edible fat comprises triglycerides obtained from non-vegetable sources, wherein Sat stands for a saturated fatty acid, and O stands for oleic acid.
Microcapsules comprising a capsule shell, and a capsule core, wherein the capsule shell comprises a polyester; and at least 10 wt% of water based on the total weight of the capsule core, wherein the capsule core comprises a water-soluble salt of dicamba selected from the sodium salt of dicamba and ammonium salts of dicamba, wherein the salt of dicamba has a water-solubility of at least 10 g/l at 25 ° C.