mhurhangee/ep-ind-claims huggingface dataset:
A method to automatically associate a mobile communication device having a device identifier with a newly-created first secure group established to provide security information between subscribers of the first secure group, the method comprising: storing lists of a plurality of secure groups, their currently authorized subscribers, and each group's associated security information, at a key variable loader; receiving a group name of the newly created secure group at a key variable loader via a graphics unit interface of the key variable loader; providing, via the key variable loader, a first group identifier for the first secure group at the key variable loader, and associating the first group identifier with the received group name of the newly created first secure group; setting a first key for the secure group at the key variable loader, the first key corresponding to an encryption algorithm; automatically downloading the device identifier of the mobile communication device to the key variable loader from the mobile communication device over a short range connection connecting the mobile communication device and the key variable loader; and after downloading the device identifier, uploading, via the key variable loader, the first group identifier and the first key for the first secure group to the mobile communication device via the short range connection to enable subscribers in the first group to communicate with each other using encrypted communications, and populating a particular list associated with the first secure group out of the plurality of lists of secure groups maintained at the key variable loader to include the device identifier retrieved over the short range connection. storing lists of a plurality of secure groups, their currently authorized subscribers, and each group's associated security information, at a key variable loader; receiving a group name of the newly created secure group at a key variable loader via a graphics unit interface of the key variable loader; providing, via the key variable loader, a first group identifier for the first secure group at the key variable loader, and associating the first group identifier with the received group name of the newly created first secure group; setting a first key for the secure group at the key variable loader, the first key corresponding to an encryption algorithm; automatically downloading the device identifier of the mobile communication device to the key variable loader from the mobile communication device over a short range connection connecting the mobile communication device and the key variable loader; and after downloading the device identifier, uploading, via the key variable loader, the first group identifier and the first key for the first secure group to the mobile communication device via the short range connection to enable subscribers in the first group to communicate with each other using encrypted communications, and populating a particular list associated with the first secure group out of the plurality of lists of secure groups maintained at the key variable loader to include the device identifier retrieved over the short range connection.
A computer-implemented method comprising: obtaining first (350, 502) and second different (352, 506) geographic information associated with a geographic region (100, 500), the first and second different geographic information being at the same orientation in respect of the geographic region; providing, by a processor, the obtained first geographic information on a display screen of a mobile device; detecting a movement of the mobile device, the movement being other than a change in a geographic location of the mobile device; and changing, by the processor, the obtained first geographic information displayed on the display screen of the mobile device to display the obtained second different geographic information, the changing of the geographic information being a function of the detected movement; and wherein the obtained first geographic information comprises a first map of the geographic region and the obtained second different geographic information comprises a second map of the geographic region, the second map being different than the first. obtaining first (350, 502) and second different (352, 506) geographic information associated with a geographic region (100, 500), the first and second different geographic information being at the same orientation in respect of the geographic region; providing, by a processor, the obtained first geographic information on a display screen of a mobile device; detecting a movement of the mobile device, the movement being other than a change in a geographic location of the mobile device; and changing, by the processor, the obtained first geographic information displayed on the display screen of the mobile device to display the obtained second different geographic information, the changing of the geographic information being a function of the detected movement; and wherein the obtained first geographic information comprises a first map of the geographic region and the obtained second different geographic information comprises a second map of the geographic region, the second map being different than the first.
A data transmission method, comprising: configuring, by a base station, first DCI for a terminal device, wherein the first DCI comprises scheduling information used for data transmission; sending, by the base station, the first DCI to the terminal device; configuring, by the base station, second DCI for the terminal device, wherein the second DCI comprises first information, and the first information comprises information used to indicate the terminal device to perform transmission of a first data packet with the base station according to the first DCI; sending, by the base station, a reference signal to the terminal device, wherein the base station selects the reference signal from multiple reference signals based on a determination of content of the second DCI, different reference signals indicating different content of the second DCI; and performing, by the base station, transmission of the first data packet with the terminal device. configuring, by a base station, first DCI for a terminal device, wherein the first DCI comprises scheduling information used for data transmission; sending, by the base station, the first DCI to the terminal device; configuring, by the base station, second DCI for the terminal device, wherein the second DCI comprises first information, and the first information comprises information used to indicate the terminal device to perform transmission of a first data packet with the base station according to the first DCI; sending, by the base station, a reference signal to the terminal device, wherein the base station selects the reference signal from multiple reference signals based on a determination of content of the second DCI, different reference signals indicating different content of the second DCI; and performing, by the base station, transmission of the first data packet with the terminal device.
A disposable container for a fluid which comprises: a volume formed of a flexible material, one or more inlets in said container, one or more outlets in said container, an impeller assembly mounted at least partially within said closed volume of said container, wherein the volume is adapted to receive liquid to be mixed by the impeller assembly, portions of the container are sealed to create regions (38, 39, 40, 41) where no liquid is present and where no liquid can flow, thereby modifying the shape of the volume, said volume is formed in a funnel shape, characterized in that said container is a two dimensional bag and said flexible material comprises two sheets of material joined together in sealing relation to form the two dimensional bag. a volume formed of a flexible material, one or more inlets in said container, one or more outlets in said container, an impeller assembly mounted at least partially within said closed volume of said container, wherein the volume is adapted to receive liquid to be mixed by the impeller assembly, portions of the container are sealed to create regions (38, 39, 40, 41) where no liquid is present and where no liquid can flow, thereby modifying the shape of the volume, said volume is formed in a funnel shape, characterized in that said container is a two dimensional bag and said flexible material comprises two sheets of material joined together in sealing relation to form the two dimensional bag.
A fixing assembly for releasably attaching an element to a rotatable ferromagnetic shaft comprising a non-magnetic annular housing characterised in that the non-magnetic annular housing comprises at least one substantially diametrically opposed pair of radial bores, the bores each housing a magnet with substantially the same dimensions as the bore which is slideable within the bore, each magnet being arranged so that its end nearest the axis of the annular housing is the same pole.
Retractable bollard having a cylindrical bollard body, which is mounted so as to be displaceable along a guide, and a lifting drive for the bollard body, characterised in that the lifting drive for the bollard body, which is mounted so as to be displaceable on guide columns of a frame, has a traction means which is guided continuously by means of an upper drivable deflection wheel and a lower freely rotatable deflection wheel, in that in the frame a locking hook is pivotably mounted and, in the raised end position of the bollard body, engages underneath a blocking stop associated with the bollard body, in that the drive shaft for the upper deflection wheel of the lifting drive supports at least one actuating cam for pivoting the locking hook, which is influenced by a locking moment, to an unlocking position which releases the blocking stop, and in that the upper deflection wheel of the lifting drive positioned in a freely rotatable manner on the drive shaft has at least one entrainer which cooperates with the actuating cam and limits a freewheel angle of the upper deflection wheel with respect to the drive shaft.
An epoxy resin composition, comprising at least: component; 3 to 20 parts by mass of component with respect to 100 parts by mass of the component; and 6 to 20 parts by mass of component with respect to 100 parts by mass of the component, wherein a viscosity at 50°C is 50 to 1000 Pa·s, as measured in the description the component dispersed in the component, the mixture of component and component is a mixture that initiates thickening at temperature and completes thickening at temperature when temperature increases at 2°C/min, the temperature being 80 to 110°C, and the temperature and the temperature satisfying a relationship of the following formula 5 ° C ≤ T 2 − T 1 ≤ 20 ° C and the mixture of component and component is a mixture that initiates curing at temperature when temperature increases at 2°C/min, and the temperature and the temperature satisfying a relationship of the following formula 5 ° C ≤ T 3 − T 1 ≤ 80 ° C component: epoxy resin containing at least an epoxy resin having a glycidyl amine structure Component: thickening particles which is a polymer including one or more polymerization units selected from the group consisting of a methacrylic acid ester-based compound, an acrylic acid ester-based compound, and a vinyl-based compound, and swell in the epoxy resin by heating component: curing agent containing at least dicyandiamide component: epoxy resin containing at least an epoxy resin having a glycidyl amine structure Component: thickening particles which is a polymer including one or more polymerization units selected from the group consisting of a methacrylic acid ester-based compound, an acrylic acid ester-based compound, and a vinyl-based compound, and swell in the epoxy resin by heating component: curing agent containing at least dicyandiamide
Sensor apparatus comprising: - a sensor capsule which complies with a predetermined type of protection according to the known IP codes, - inside which one or more sensors are arranged, and - a holder, - wherein the holder is fastened to a traffic infrastructure, and - wherein the sensor capsule is releasably fastened in the holder, characterized in that the holder also has one or more further electrical or electronic functionalities in addition to the fastening functionality. - a sensor capsule which complies with a predetermined type of protection according to the known IP codes, - inside which one or more sensors are arranged, and - a holder, - wherein the holder is fastened to a traffic infrastructure, and - wherein the sensor capsule is releasably fastened in the holder, characterized in that the holder also has one or more further electrical or electronic functionalities in addition to the fastening functionality.
A self-supported film (2, 10, 15), characterised in that it includes at least a main thin layer (12, 16, 17) comprising at least 50% volume of silicon particles devoid of silicon oxide and encapsulated in a polymer matrix protecting the silicon particles against oxidation, the polymer matrix being formed of one or several oxygen-free polymer protecting against oxidation.
A method for measuring a change in lung volume, comprising: placing a first pair of electrodes (11, 12) in skin contact with opposite arms of a human body; placing a second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body; and measuring a parameter for impedance pneumography by tetrapolar impedance measurement, comprising: feeding a current to the first pair of electrodes (11, 12) in contact with the opposite arms of the human body and measuring a voltage by the second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body, or feeding a current to the second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body and measuring a voltage by the first pair of electrodes (11, 12) in contact with the opposite arms of the human body. placing a first pair of electrodes (11, 12) in skin contact with opposite arms of a human body; placing a second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body; and measuring a parameter for impedance pneumography by tetrapolar impedance measurement, comprising: feeding a current to the first pair of electrodes (11, 12) in contact with the opposite arms of the human body and measuring a voltage by the second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body, or feeding a current to the second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body and measuring a voltage by the first pair of electrodes (11, 12) in contact with the opposite arms of the human body. feeding a current to the first pair of electrodes (11, 12) in contact with the opposite arms of the human body and measuring a voltage by the second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body, or feeding a current to the second pair of electrodes (21, 22) in skin contact with the midaxillary line on opposite sides of the human body and measuring a voltage by the first pair of electrodes (11, 12) in contact with the opposite arms of the human body.
A silicoaluminophosphate represented by the following formula and having a powder X-ray diffraction pattern shown in Table 1 below: (Si x AlyP z)O 2 wherein x is a molar fraction of Si and 0.05<x≤0.15; y is a molar fraction of Al and 0.47≤y≤0.52; z is a molar fraction of P and 0.40≤z≤0.46; and x+y+z=1; [Table 1] Interplanar Spacing Å Relative Intensity I/I 0 9.30±0.15 1000 6.85±0.10 from 100 to 300 6.60±0.10 from 10 to 100 B 5.50±0.10 from 50 to 300 5.24±0.10 from 10 to 100 B 4.64±0.10 from 10 to 100 4.29±0.05 from 100 to 500 4.17±0.05 from 10 to 150 B 3.82±0.05 from 10 to 100 3.42±0.05 from 20 to 150 2.87±0.02 from 20 to 200 I/I 0 is a relative intensity when the peak of 9.30±0.15Å is taken as 1,000; and B indicates a broad peak which is an XRD peak having a half-width value of 0.3 degrees or more. wherein x is a molar fraction of Si and 0.05<x≤0.15; y is a molar fraction of Al and 0.47≤y≤0.52; z is a molar fraction of P and 0.40≤z≤0.46; and x+y+z=1;
A robot comprising: an arm; and a force detector provided in the arm and configured for detecting a force, wherein the robot is configured so as to move at least one of a first object and a second object by means of the arm in a direction in which the first object and the second object are closer to each other, and, if a contact of the first object with the second object at a position of the second object which is different from an insertion portion (H1, H2) of the second object is determined based on an output of the force detector, to separate the first object and the second object by moving a control point of the first object to a first waiting position, which is a position on a center axis of the insertion portion (H1, H2), characterized in that: when the contact of the first object with the second object at a position different from the insertion portion (H1, H2) and the separation of the first object and the second object have been performed twice or more, at least one of the first object and the second object is moved to change the first waiting position along a spiral trajectory as seen in the direction in which the objects are closer to each other. an arm; and a force detector provided in the arm and configured for detecting a force, wherein the robot is configured so as to move at least one of a first object and a second object by means of the arm in a direction in which the first object and the second object are closer to each other, and, if a contact of the first object with the second object at a position of the second object which is different from an insertion portion (H1, H2) of the second object is determined based on an output of the force detector, to separate the first object and the second object by moving a control point of the first object to a first waiting position, which is a position on a center axis of the insertion portion (H1, H2), characterized in that: when the contact of the first object with the second object at a position different from the insertion portion (H1, H2) and the separation of the first object and the second object have been performed twice or more, at least one of the first object and the second object is moved to change the first waiting position along a spiral trajectory as seen in the direction in which the objects are closer to each other.
A Coriolis vibratory gyroscope system comprising: a sensor system (12, 50) comprising a plurality of electrodes (18, 20, 54, 56, 58, 60) configured to electrostatically force an annular resonator (16, 52) into a substantially periodic motion based on a drive axis forcer signal (SIG, SIG AN) applied to a first set of the plurality of electrodes (18, 20, 54, 56, 58, 60) and a sense axis force-rebalance signal (SIG, SIG N) applied to a second set of the plurality of electrodes (18, 20, 54, 56, 58, 60), and configured to provide a sense axis pickoff signal (PO, PO N) and a drive axis pickoff signal (PO, PO AN); and a gyroscope controller (14, 150) configured to generate the drive axis forcer signal (SIG, SIG AN) based on the drive axis pickoff signal (PO, PO AN), to generate the sense axis force-rebalance signal (SIG, SIG N) based on the sense axis pickoff signal (PO, PO N), and to calculate an angular rate of rotation of the CVG system about an input axis based on the sense axis force-rebalance signal (SIG, SIG N), the gyroscope controller (14, 150) being further configured to modulate a predetermined disturbance signal component onto the sense axis force-rebalance signal (SIG, SIG N), characterised in that the gyroscope controller (14,150) is further configured to control a modulation phase of the sense axis force-rebalance signal (SIG, SIG N) based on detection of the predetermined disturbance signal component in the sense axis force-rebalance signal (SIG, SIG N) to substantially mitigate bias and scale-factor error. a sensor system (12, 50) comprising a plurality of electrodes (18, 20, 54, 56, 58, 60) configured to electrostatically force an annular resonator (16, 52) into a substantially periodic motion based on a drive axis forcer signal (SIG, SIG AN) applied to a first set of the plurality of electrodes (18, 20, 54, 56, 58, 60) and a sense axis force-rebalance signal (SIG, SIG N) applied to a second set of the plurality of electrodes (18, 20, 54, 56, 58, 60), and configured to provide a sense axis pickoff signal (PO, PO N) and a drive axis pickoff signal (PO, PO AN); and a gyroscope controller (14, 150) configured to generate the drive axis forcer signal (SIG, SIG AN) based on the drive axis pickoff signal (PO, PO AN), to generate the sense axis force-rebalance signal (SIG, SIG N) based on the sense axis pickoff signal (PO, PO N), and to calculate an angular rate of rotation of the CVG system about an input axis based on the sense axis force-rebalance signal (SIG, SIG N), the gyroscope controller (14, 150) being further configured to modulate a predetermined disturbance signal component onto the sense axis force-rebalance signal (SIG, SIG N), characterised in that the gyroscope controller (14,150) is further configured to control a modulation phase of the sense axis force-rebalance signal (SIG, SIG N) based on detection of the predetermined disturbance signal component in the sense axis force-rebalance signal (SIG, SIG N) to substantially mitigate bias and scale-factor error.