mhurhangee/patent-ind-claim-en huggingface dataset:
A radiographic system that includes a radiation generation apparatus configured to emit radiation, a radiographic apparatus configured to generate a radiographic image based on the radiation, a control apparatus configured to communicate with the radiographic apparatus to receive the radiographic image and control operation, the radiographic system comprising: obtaining means configured to obtain a plurality of dose index values using the radiation image generated based on the radiation, the radiographic system further comprising setting means for setting a dose index target value corresponding to the plurality of dose index values, and characterized in that : the obtaining means is further configured to obtain a plurality of deviation index values using the plurality of dose index values and the dose index target value. obtaining means configured to obtain a plurality of dose index values using the radiation image generated based on the radiation, the radiographic system further comprising setting means for setting a dose index target value corresponding to the plurality of dose index values, and characterized in that : the obtaining means is further configured to obtain a plurality of deviation index values using the plurality of dose index values and the dose index target value.
A method of generating a private key and a corresponding public key , the method comprising: generating a digital signature, wherein generating said digital signature comprises: selecting an ephemeral private key k, said ephemeral private key being a non-negative integer smaller than a prime number n; computing an ephemeral public key from said ephemeral private key k, said ephemeral public key being a product of said ephemeral private key and an elliptic curve point G having a prime number as its order; assigning an integer value corresponding to said ephemeral public key to a first integer r; and selecting a second integer s, said second integer being a non-negative integer smaller than the prime number n, said first integer and said second integer forming said digital signature; obtaining message data; generating a self-signed signature message by combining said data message and said digital signature; computing a message digest e from an integer hash value of said self-signed signature message; computing said private key using said self-signed signature message and said message digest; and computing said corresponding public key using said self-signed signature message and said message digest. generating a digital signature, wherein generating said digital signature comprises: selecting an ephemeral private key k, said ephemeral private key being a non-negative integer smaller than a prime number n; computing an ephemeral public key from said ephemeral private key k, said ephemeral public key being a product of said ephemeral private key and an elliptic curve point G having a prime number as its order; assigning an integer value corresponding to said ephemeral public key to a first integer r; and selecting a second integer s, said second integer being a non-negative integer smaller than the prime number n, said first integer and said second integer forming said digital signature; selecting an ephemeral private key k, said ephemeral private key being a non-negative integer smaller than a prime number n; computing an ephemeral public key from said ephemeral private key k, said ephemeral public key being a product of said ephemeral private key and an elliptic curve point G having a prime number as its order; assigning an integer value corresponding to said ephemeral public key to a first integer r; and selecting a second integer s, said second integer being a non-negative integer smaller than the prime number n, said first integer and said second integer forming said digital signature; obtaining message data; generating a self-signed signature message by combining said data message and said digital signature; computing a message digest e from an integer hash value of said self-signed signature message; computing said private key using said self-signed signature message and said message digest; and computing said corresponding public key using said self-signed signature message and said message digest.
Device (1-1b) for rescuing a person from a wind turbine comprising a parachute and a harness (9; 9b), which harness can be or is connected to the parachute, and which harness can be attached by the person to be rescued , wherein the rescue device comprises a static line for connecting the rescue device (1-1b) to the wind turbine , wherein the harness comprises two leg straps (10,11; 10b, 11b) and a body strap (12; 12b) which is connectable to the leg straps, characterized in that the leg straps (10, 11; 10b, 11b) surround the thighs of a person using the rescue device in circumferential direction and are not variable in their circumferential size, but have a circumference which is suitable for leg circumferences of different sizes.
A peritoneal dialysis system comprising: a dialysis instrument ; a disposable cassette operable with the dialysis instrument; a plurality of fluid lines in fluid communication with the disposable cassette ; a supply of dialysis fluid buffer concentrate ; a supply of dialysis fluid glucose concentrate that is separate from the supply of dialysis fluid buffer concentrate; a conductivity cell including a pair of electrodes ; electronics including an electrical sensor operable with the conductivity cell to measure a conductivity of the fluid flowing within the disposable cassette using the pair of electrodes ; and a processor operable with the electronics , characterized in that the processor is configured to discern a conductivity difference between (i) a sensed fluid containing one of the dialysis fluid buffer concentrate or the dialysis fluid glucose concentrate and (ii) a sensed fluid including mixed dialysis fluid having buffer concentrate and glucose concentrate, wherein the processor is configured to use the sensed conductivities for properly mixing the mixed dialysis fluid, and wherein the conductivity cell is positioned and arranged to contact fluid flowing within the disposable cassette . a dialysis instrument ; a disposable cassette operable with the dialysis instrument; a plurality of fluid lines in fluid communication with the disposable cassette ; a supply of dialysis fluid buffer concentrate ; a supply of dialysis fluid glucose concentrate that is separate from the supply of dialysis fluid buffer concentrate; a conductivity cell including a pair of electrodes ; electronics including an electrical sensor operable with the conductivity cell to measure a conductivity of the fluid flowing within the disposable cassette using the pair of electrodes ; and a processor operable with the electronics , characterized in that the processor is configured to discern a conductivity difference between (i) a sensed fluid containing one of the dialysis fluid buffer concentrate or the dialysis fluid glucose concentrate and (ii) a sensed fluid including mixed dialysis fluid having buffer concentrate and glucose concentrate, wherein the processor is configured to use the sensed conductivities for properly mixing the mixed dialysis fluid, and wherein the conductivity cell is positioned and arranged to contact fluid flowing within the disposable cassette .
A method of charging a wireless ultrasound probe wirelessly connected to an ultrasound diagnosis apparatus, the method comprising: determining a data communication method capable of directional communication used for transmitting ultrasound image data obtained from an object to the ultrasound diagnosis apparatus; providing position information of the wireless ultrasound probe to the ultrasound diagnosis apparatus via the determined data communication method; focusing wireless power directionally transmitted by the ultrasound diagnosis apparatus based on the position information; and charging a battery included in the wireless ultrasound probe by using the focused wireless power directionally transmitted by the ultrasound diagnosis apparatus according to the position information of the wireless ultrasound probe, wherein the wireless power is transmitted directionally to the wireless ultrasound probe by a beamsteering method in a form of a magnetic field beam. determining a data communication method capable of directional communication used for transmitting ultrasound image data obtained from an object to the ultrasound diagnosis apparatus; providing position information of the wireless ultrasound probe to the ultrasound diagnosis apparatus via the determined data communication method; focusing wireless power directionally transmitted by the ultrasound diagnosis apparatus based on the position information; and charging a battery included in the wireless ultrasound probe by using the focused wireless power directionally transmitted by the ultrasound diagnosis apparatus according to the position information of the wireless ultrasound probe, wherein the wireless power is transmitted directionally to the wireless ultrasound probe by a beamsteering method in a form of a magnetic field beam.
An imaging apparatus comprising: an image sensor ; and a controller configured to acquire an infrared image generated by the image sensor when infrared light is higher than a predetermined light amount, to acquire a normal image generated by the image sensor when the infrared light is lower than the predetermined light amount, and to generate a synthesized image on the basis of the infrared image and the normal image, characterized in that the controller is configured to receive an emission state signal indicating an emission state of the infrared light from an infrared light source , and on the basis of the emission state signal, to acquire the infrared image when the infrared light is higher than the predetermined light amount, and to acquire the normal image when the infrared light is lower than the predetermined light amount, wherein the controller is configured to generate a synthesized image on the basis of a luminance signal (Y) of the infrared image and a color difference signal (Cr, Cb) of the normal image, wherein the controller is configured to generate a corrected color difference signal by correcting a gain of the color difference signal (Cr, Cb), and to generate the synthesized image on the basis of the corrected color difference signal (Cr1, Cb1) and the luminance signal (Y) of the infrared image, and wherein the controller is configured to correct the gain of the color difference signal (Cr, Cb) on the basis of an intensity of the luminance signal (Y) of the infrared image and an intensity of the color difference signal (Cr, Cb). an image sensor ; and a controller configured to acquire an infrared image generated by the image sensor when infrared light is higher than a predetermined light amount, to acquire a normal image generated by the image sensor when the infrared light is lower than the predetermined light amount, and to generate a synthesized image on the basis of the infrared image and the normal image, characterized in that the controller is configured to receive an emission state signal indicating an emission state of the infrared light from an infrared light source , and on the basis of the emission state signal, to acquire the infrared image when the infrared light is higher than the predetermined light amount, and to acquire the normal image when the infrared light is lower than the predetermined light amount, wherein the controller is configured to generate a synthesized image on the basis of a luminance signal (Y) of the infrared image and a color difference signal (Cr, Cb) of the normal image, wherein the controller is configured to generate a corrected color difference signal by correcting a gain of the color difference signal (Cr, Cb), and to generate the synthesized image on the basis of the corrected color difference signal (Cr1, Cb1) and the luminance signal (Y) of the infrared image, and wherein the controller is configured to correct the gain of the color difference signal (Cr, Cb) on the basis of an intensity of the luminance signal (Y) of the infrared image and an intensity of the color difference signal (Cr, Cb).
A method of operating a first mobile terminal for initiating peer-to-peer, P2P, communication, the method comprising: transmitting, to a second mobile terminal , a plurality of messaging service packets encapsulating first information of the first mobile terminal based on a size of the first information of the first mobile terminal via a socketless communication path; receiving, from the second mobile terminal , a plurality of messaging service packets encapsulating augmented information via the socketless communication path, wherein the augmented information is generated by augmenting the first information of the first mobile terminal with second information of the second mobile terminal so that the augmented information comprises the first information of the first mobile terminal and the second information of the second mobile terminal ; and initiating the P2P communication via a P2P communication path based on the augmented information being received, wherein the first information is associated with session description protocol, SDP, data of the first mobile terminal for P2P communication that is based on web real-time communication, WebRTC, and wherein the second information is associated with SDP data of the second mobile terminal for P2P communication that is based on WebRTC. transmitting, to a second mobile terminal , a plurality of messaging service packets encapsulating first information of the first mobile terminal based on a size of the first information of the first mobile terminal via a socketless communication path; receiving, from the second mobile terminal , a plurality of messaging service packets encapsulating augmented information via the socketless communication path, wherein the augmented information is generated by augmenting the first information of the first mobile terminal with second information of the second mobile terminal so that the augmented information comprises the first information of the first mobile terminal and the second information of the second mobile terminal ; and initiating the P2P communication via a P2P communication path based on the augmented information being received, wherein the first information is associated with session description protocol, SDP, data of the first mobile terminal for P2P communication that is based on web real-time communication, WebRTC, and wherein the second information is associated with SDP data of the second mobile terminal for P2P communication that is based on WebRTC.
Method for controlling a compressor of a circuit on the output side of a heat exchanger of a heat pump , wherein the heat exchanger is supplied on an input side by a further circuit using a geothermal medium, characterized in that the compressor is at least reduced in power output or switched off when the temperature of the medium of the further circuit in the feed to the heat exchanger lies below a limit value, and in that the power output of the compressor is increased again when a predetermined time period since the reduction in the power output of the compressor has passed or the temperature of the medium has increased by a predetermined value.
Battery system for a vehicle , preferably for an industrial truck, comprising: - at least one rechargeable battery for supplying energy to at least one vehicle component of the vehicle , - a charging component for mechanical and electrical charging connection with an external charging device to charge, in a charging state, the battery by the charging device , - a safety device , which is arranged at least partially in the region of the charging component , for detecting the mechanical charging connection of the charging component to the charging device , so that a safety interruption of the power supply to the vehicle component in the charging state can be implemented, characterized in that a mechanical actuating element of the safety device is arranged directly or adjacent to a housing of the charging component , namely in a connecting region (V), in which the charging device can be introduced for charging connection with the charging component by a contacting movement (B), so that the actuating element is designed to be actuable by the contacting movement (B) of the charging device , and wherein the mechanical actuating element is arranged in the connecting region (V) of the charging component in such a way that a force is exerted by the charging device in the course of establishing the mechanical charging connection in time before at least one electrical contact of the charging device makes contact with a respective mating contact of the charging component . - at least one rechargeable battery for supplying energy to at least one vehicle component of the vehicle , - a charging component for mechanical and electrical charging connection with an external charging device to charge, in a charging state, the battery by the charging device , - a safety device , which is arranged at least partially in the region of the charging component , for detecting the mechanical charging connection of the charging component to the charging device , so that a safety interruption of the power supply to the vehicle component in the charging state can be implemented,
A magnetic resonance system, comprising: a radio frequency coil configured for delivering magnetic resonance transmissions in the form of a B1 field to an imaging zone , a wireless power detection sensor configured to detect the magnetic resonance transmissions; and a wireless energy harvesting circuit (241-260, 350, 450) configured to harvest energy from the magnetic resonance transmissions based on the wireless power detection sensor detecting the magnetic resonance transmissions, characterised in that the wireless power detection sensor is configured to detect when magnetic resonance transmissions exceed a threshold, and wherein the wireless power detection sensor is configured to generate and send a signal to the wireless energy harvesting circuit (241-260, 350, 450) based on detecting that the magnetic resonance transmissions reach the threshold. a radio frequency coil configured for delivering magnetic resonance transmissions in the form of a B1 field to an imaging zone , a wireless power detection sensor configured to detect the magnetic resonance transmissions; and a wireless energy harvesting circuit (241-260, 350, 450) configured to harvest energy from the magnetic resonance transmissions based on the wireless power detection sensor detecting the magnetic resonance transmissions, characterised in that the wireless power detection sensor is configured to detect when magnetic resonance transmissions exceed a threshold, and wherein the wireless power detection sensor is configured to generate and send a signal to the wireless energy harvesting circuit (241-260, 350, 450) based on detecting that the magnetic resonance transmissions reach the threshold.
A vacuum pump, in particular a turbomolecular pump, comprising a housing element ; a rotor which defines an axial direction with its longitudinal extent; and a bearing element provided for the rotor , wherein the bearing element is arranged in an opening of the housing element ; wherein at least a first component which is separate from the housing element is provided for positioning the bearing element relative to the housing element ; wherein the opening has at least a first cylindrical axial section having a constant cross-section; wherein the first component is arranged in the first axial section of the opening ; wherein the first component is arranged with its cross-section radially solely within the cross-section of the opening in the first axial section ; wherein the first component is fastened in the opening by means of at least one plate-shaped and/or disk-shaped fastening element ; and wherein the fastening element extends radially both within the cross-section and outside the cross-section of the first axial region .
A method for providing a crystalline ceramic material, the method comprising: providing a silicon-containing preceramic polymer material that can be thermally converted to one or more crystalline polymorphs, the silicon-containing preceramic polymer material including dispersed therein dopant particles in an amount of from 0.05 - to wt%; and thermally converting the silicon-containing preceramic polymer material to the silicon-containing ceramic material, the dopant particles enhancing the formation of at least one of the one or more crystalline polymorphs, relative to the silicon-containing preceramic polymer without the dopant particles, with respect to at least one of: formation of a selected polymorph of the one or more crystalline polymorphs formed, an amount formed of a selected polymorph of the one or more crystalline polymorphs formed, and a temperature of formation of the one or more crystalline polymorphs, wherein the dopant particles are: carbon-containing particles selected from the group consisting of nano-diamond, graphite, graphene, activated carbon, carbon nanotubes, and combinations thereof; or nitride particles selected from the group consisting of gallium nitride, boron nitride, and combinations thereof. providing a silicon-containing preceramic polymer material that can be thermally converted to one or more crystalline polymorphs, the silicon-containing preceramic polymer material including dispersed therein dopant particles in an amount of from 0.05 - to wt%; and thermally converting the silicon-containing preceramic polymer material to the silicon-containing ceramic material, the dopant particles enhancing the formation of at least one of the one or more crystalline polymorphs, relative to the silicon-containing preceramic polymer without the dopant particles, with respect to at least one of: formation of a selected polymorph of the one or more crystalline polymorphs formed, an amount formed of a selected polymorph of the one or more crystalline polymorphs formed, and a temperature of formation of the one or more crystalline polymorphs, formation of a selected polymorph of the one or more crystalline polymorphs formed, an amount formed of a selected polymorph of the one or more crystalline polymorphs formed, and a temperature of formation of the one or more crystalline polymorphs, wherein the dopant particles are: carbon-containing particles selected from the group consisting of nano-diamond, graphite, graphene, activated carbon, carbon nanotubes, and combinations thereof; or nitride particles selected from the group consisting of gallium nitride, boron nitride, and combinations thereof. carbon-containing particles selected from the group consisting of nano-diamond, graphite, graphene, activated carbon, carbon nanotubes, and combinations thereof; or nitride particles selected from the group consisting of gallium nitride, boron nitride, and combinations thereof.