mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating between devices (10; 52, 54) coupled to a bus (64; 50), wherein the method comprises: using a unified frame format for data transmitted in a bitstream mode of communication, the unified frame format comprising two or more frame channels, each of the frame channels given an assigned time slot in the unified frame format; and sending bits between at least two of the devices coupled to the bus by sending one bit from a first of the frame channels at the time slot assigned to the first of the frame channels, then sending one bit from a next of the frame channels at the time slot assigned to the next of the frame channels, and so on until one bit from each of the frame channels has been sent, and then resuming sending from the first of the frame channels, wherein one of the frame channels is used as a control channel carrying individual control bits from control data and; the method is further characterized in that one or more of the other frame channels are used as virtual frame channels, carrying individual data bits taken from digital word data; the method further comprising interlacing the individual data bits taken from digital word data corresponding to different digital word data channels into a common one of the virtual frame channels. using a unified frame format for data transmitted in a bitstream mode of communication, the unified frame format comprising two or more frame channels, each of the frame channels given an assigned time slot in the unified frame format; and sending bits between at least two of the devices coupled to the bus by sending one bit from a first of the frame channels at the time slot assigned to the first of the frame channels, then sending one bit from a next of the frame channels at the time slot assigned to the next of the frame channels, and so on until one bit from each of the frame channels has been sent, and then resuming sending from the first of the frame channels, wherein one of the frame channels is used as a control channel carrying individual control bits from control data and; the method is further characterized in that one or more of the other frame channels are used as virtual frame channels, carrying individual data bits taken from digital word data; the method further comprising interlacing the individual data bits taken from digital word data corresponding to different digital word data channels into a common one of the virtual frame channels.
Lance injector for injecting fuel into a combustion chamber of a gas turbine, the lance injector comprising: a first tubular body (15; 115) and a second tubular body (16; 116); a nozzle connected to respective first ends (15a, 16a) of the first tubular body (15; 115) and of the second tubular body (16; 116); a guiding bushing (30; 130) fitted onto the first tubular body (15; 115) so as to allow the first tubular body (15; 115) to axially slide with respect to the second tubular body (16; 116) on account of thermal expansion and contraction; and sealing members (37; 137) between the first tubular body (15; 115) and the guiding bushing (30; 130); wherein the sealing members are defined by at least two sealing rings (38; 138), the first tubular body (15; 115) and the guiding bushing (30; 130) being separated by an annular gap except at the sealing rings (38; 138); characterized by a contrast elastic device, that is loaded in response to the thermal expansion of the first tubular body and releases energy to the first tubular body in response to the thermal contraction of the first tubular body, the first tubular body (15; 115) being arranged coaxially inside the second tubular body (16; 116). a first tubular body (15; 115) and a second tubular body (16; 116); a nozzle connected to respective first ends (15a, 16a) of the first tubular body (15; 115) and of the second tubular body (16; 116); a guiding bushing (30; 130) fitted onto the first tubular body (15; 115) so as to allow the first tubular body (15; 115) to axially slide with respect to the second tubular body (16; 116) on account of thermal expansion and contraction; and sealing members (37; 137) between the first tubular body (15; 115) and the guiding bushing (30; 130); wherein the sealing members are defined by at least two sealing rings (38; 138), the first tubular body (15; 115) and the guiding bushing (30; 130) being separated by an annular gap except at the sealing rings (38; 138); characterized by a contrast elastic device, that is loaded in response to the thermal expansion of the first tubular body and releases energy to the first tubular body in response to the thermal contraction of the first tubular body, the first tubular body (15; 115) being arranged coaxially inside the second tubular body (16; 116).
A subject information obtaining apparatus adapted to transmit an elastic wave to a subject, to receive the elastic wave reflected from an object inside the subject, and to obtain information regarding the subject, the subject information obtaining apparatus comprising: a plurality of conversion elements configured to receive the elastic wave and to convert the elastic wave into a plurality of received signals; characterized by a storage unit configured to store a plurality of reference signals corresponding to shapes of reference objects; and a frequency-domain interferometry adaptive processing unit configured to execute a frequency-domain interferometry method and adaptive signal processing using the plurality of received signals and two or more reference signals among the plurality of reference signals, in order to obtain two or more power intensity distributions for the two or more reference signals, wherein the shapes of the reference objects include at least one of the angles of the reference objects relative to a scan line, the sizes of regions of the reference objects that reflect the elastic wave, and the radii of curvature of the reference objects. a plurality of conversion elements configured to receive the elastic wave and to convert the elastic wave into a plurality of received signals; characterized by a storage unit configured to store a plurality of reference signals corresponding to shapes of reference objects; and a frequency-domain interferometry adaptive processing unit configured to execute a frequency-domain interferometry method and adaptive signal processing using the plurality of received signals and two or more reference signals among the plurality of reference signals, in order to obtain two or more power intensity distributions for the two or more reference signals, wherein the shapes of the reference objects include at least one of the angles of the reference objects relative to a scan line, the sizes of regions of the reference objects that reflect the elastic wave, and the radii of curvature of the reference objects.
Procedure designed to measure the level of a product in a container using microwave pulses, said procedure comprising the following steps: - A microwave pulse is emitted in the direction of the product, - The microwave pulse is reflected at the surface of the product, - The reflected microwave pulse is received after a time-of-flight (t) that depends on the level, wherein the steps of the procedure are repeated cyclically at a repetition frequency (f puls), characterized in that the repetition frequency (f puls) is controlled depending on the time-of-flight (t) in such a way that the repetition frequency (f puls) increases when the time-of-flight (t) becomes shorter and decreases when the time becomes longer (t), and wherein the level is determined based on the repetition frequency (f puls). - A microwave pulse is emitted in the direction of the product, - The microwave pulse is reflected at the surface of the product, - The reflected microwave pulse is received after a time-of-flight (t) that depends on the level,
A flip chip mounting process wherein a semiconductor chip having a plurality of connecting terminals is opposed to a wiring substrate having a plurality of electrode terminals so that said connecting terminals are electrically connected to said electrode terminals, said process comprising the steps of: supplying a thermosetting resin comprising solder powder and a convection additive onto a surface of said wiring substrate, such surface being provided with said electrode terminals; bringing said semiconductor chip into contact with a surface of said resin; heating said wiring substrate up to a temperature that enables said solder powder to melt; and then heating said wiring substrate to cure said resin; wherein electrical connections are formed between said electrode terminals and said connecting terminals in the step, and said semiconductor chip is secured to said wiring substrate in the step wherein the step of heating said wiring substrate is carried out at a temperature that is above a boiling point of said convection additive, so the convection additive is caused to boil and boiling convection additive transformed to a gas state within said resin causes said solder powder to assemble and gives kinetic energy to said solder powder for said solder powder self-assembling into regions between said electrode terminals and said connecting terminals for forming said electrical connections. supplying a thermosetting resin comprising solder powder and a convection additive onto a surface of said wiring substrate, such surface being provided with said electrode terminals; bringing said semiconductor chip into contact with a surface of said resin; heating said wiring substrate up to a temperature that enables said solder powder to melt; and then heating said wiring substrate to cure said resin;
A method comprising: electronically obtaining identifying information of a water quality sample container; electronically obtaining identifying information of a water quality sample location; placing, in the container, a water sample from the water quality sample location; obtaining measurement data obtained by a water quality sensor which measures water quality at the water quality sample location, wherein the obtaining of measurement data comprises writing the measurement data to an electronic storage medium physically associated with the water quality sample container; and storing the identifying information of the water quality sample container and the identifying information of the water quality sample location, wherein said storing comprises associating the identifying information of the water quality sample container and the identifying information of the water quality sample location and associating the measurement data written to the electronic storage medium with the identifying information of the water quality sample container and the identifying information of the water quality sample location. electronically obtaining identifying information of a water quality sample container; electronically obtaining identifying information of a water quality sample location; placing, in the container, a water sample from the water quality sample location; obtaining measurement data obtained by a water quality sensor which measures water quality at the water quality sample location, wherein the obtaining of measurement data comprises writing the measurement data to an electronic storage medium physically associated with the water quality sample container; and storing the identifying information of the water quality sample container and the identifying information of the water quality sample location, wherein said storing comprises associating the identifying information of the water quality sample container and the identifying information of the water quality sample location and associating the measurement data written to the electronic storage medium with the identifying information of the water quality sample container and the identifying information of the water quality sample location.
A jewelry item comprising: - at least one cable defining a plurality of strands arranged relative to one another to form a flexible support frame, - a plurality of decorative elements each threaded into at least two strands of said at least one cable so that each decorative element forms a junction node of the flexible support frame, each decorative element comprising means for attaching the decorative element to said at least one cable whereupon it is threaded, and wherein at least one decorative element is of elongated shape, said decorative element comprising a junction end attached to said at least one cable and a free end opposite said junction end. - at least one cable defining a plurality of strands arranged relative to one another to form a flexible support frame, - a plurality of decorative elements each threaded into at least two strands of said at least one cable so that each decorative element forms a junction node of the flexible support frame, each decorative element comprising means for attaching the decorative element to said at least one cable whereupon it is threaded, and wherein at least one decorative element is of elongated shape, said decorative element comprising a junction end attached to said at least one cable and a free end opposite said junction end.
A method of controlling an air conditioning system comprising at least one outdoor device and at least one indoor device connected to the at least one outdoor device, the method comprising: • collecting current and voltage values using a current sensor and a voltage sensor installed at or in the at least one outdoor device; • collecting operating information of the at least one indoor device; and • calculating power consumption of the air conditioning system based on the current value, the voltage value, and the operating information, characterized in that the operating information includes at least one of capacity information, operating temperature information, operating time information, operating mode information, or air volume information of the at least one indoor device, and wherein the collecting current and voltage values and the collecting operating information are repeated at preset periods of time. • collecting current and voltage values using a current sensor and a voltage sensor installed at or in the at least one outdoor device; • collecting operating information of the at least one indoor device; and • calculating power consumption of the air conditioning system based on the current value, the voltage value, and the operating information,
Motor vehicle lock having an actuating element, in particular a control shaft, and a drive for adjusting the actuating element, wherein the drive has a rotor and a stator, wherein the stator has a coil arrangement and at least two magnetically conducting poles which are assigned to the coil arrangement and are intended for conducting the magnetic field generated by the coil arrangement, characterized in that the poles each form, with the rotor, optionally depending on the rotor position, an axial airgap (11a/11b) with respect to the geometrical rotor axis, in that a first section of the coil arrangement with at least one coil (12, 13) and a second section of the coil arrangement with at least one coil (14, 15) are offset axially with respect to each other with respect to the geometrical rotor axis and are arranged along the geometrical rotor axis on opposite sides of the rotor.
A winding method for radial magnetic bearing stator, comprising: S110, sleeving a first formed stator winding on a first stator tooth of a stator core along a radial outward direction; S120, sleeving a second formed stator winding on a second stator tooth of the stator core along a radial outward direction; S130, a first coil of the first formed stator winding is connected in series with a second coil of the second formed stator winding; wherein the first stator tooth is adjacent to the second stator tooth, and a stator slot is formed therebetween, characterized in that the coil number of the first formed stator winding is larger than that of the second formed stator winding. S110, sleeving a first formed stator winding on a first stator tooth of a stator core along a radial outward direction; S120, sleeving a second formed stator winding on a second stator tooth of the stator core along a radial outward direction; S130, a first coil of the first formed stator winding is connected in series with a second coil of the second formed stator winding; wherein the first stator tooth is adjacent to the second stator tooth, and a stator slot is formed therebetween, characterized in that the coil number of the first formed stator winding is larger than that of the second formed stator winding.
A method implemented by one or more data processing apparatus, the method for identifying potential hydrocarbon traps (107, 109) in a subterranean region, the method comprising: receiving seismic data of the subterranean region, the seismic data acquired by at least one seismic sensor, the seismic data indicating positions of physical barriers to hydrocarbon flow in the subterranean region; creating a representation of the subterranean region and labeling voxels at the positions of the physical barriers as impermeable; labeling voxels in the representation of the subterranean region not marked as impermeable as possible hydrocarbon; using anisotropic lateral and upward erosion to change labels of voxels from possible hydrocarbon to not possible hydrocarbon; iterating the anisotropic lateral and upward erosion until no change occurs between one iteration and the next iteration; and providing identification of the voxels labeled as possible hydrocarbons as output. receiving seismic data of the subterranean region, the seismic data acquired by at least one seismic sensor, the seismic data indicating positions of physical barriers to hydrocarbon flow in the subterranean region; creating a representation of the subterranean region and labeling voxels at the positions of the physical barriers as impermeable; labeling voxels in the representation of the subterranean region not marked as impermeable as possible hydrocarbon; using anisotropic lateral and upward erosion to change labels of voxels from possible hydrocarbon to not possible hydrocarbon; iterating the anisotropic lateral and upward erosion until no change occurs between one iteration and the next iteration; and providing identification of the voxels labeled as possible hydrocarbons as output.
Use of similar drive batteries in a first vehicle, the first vehicle being equipped with a front drive, and in a second vehicle, the second vehicle being equipped with a rear drive, wherein each drive battery has a battery housing, a plurality of battery modules in the battery housing, a connection of the drive battery and at least one crossmember, preferably a plurality of crossmembers, in the battery housing for boosting the drive battery in the vehicle transverse direction (y), wherein all of the crossmembers are arranged symmetrically with respect to a rotation of the drive battery about a vertical axis (z) through 180 degrees, so that after such a rotation the crossmembers come to rest in the same positions in the vehicle longitudinal direction (x) as before the rotation, wherein the drive battery in the second vehicle is rotated about a vertical axis through 180 degrees, with respect to the arrangement of the drive battery in the first vehicle, so that the crossmembers in the second vehicle lie in the same positions in the vehicle longitudinal direction (x) as in the first vehicle.
A device (100;200;400;500;600;1000;1100) for detecting an object with respect to a detection surface, said device (100;200;400;500;600;1000) comprising: - at least one measurement electrode; - at least one electrode, called guard electrode; and - a measurement electronics for measuring a signal with respect to the electrical capacitance of said measurement electrode; said measurement and guard electrodes (106, 108) being separated by a distance that is elastically modifiable locally, by a load exerted by said object on said detection surface; said device also comprising means for electrical polarization of the electrodes (V,E,302,402) arranged in order to apply to the measurement and guard electrodes (106, 108): - one and the same first alternating electrical potential (V g), or - first, substantially identical, alternating potentials; that is(are) different from a ground potential, so as to measure a first signal with respect to the capacitance (C eo), called electrode-object capacitance, between said measurement electrode and said object, representative of an approach and/or a contact of said object with said detection surface; characterized in that said means for electrical polarization of the electrodes (V,E,302,402) are also arranged to apply between the measurement and guard electrodes (106, 108) an alternating electrical potential difference, so as to measure a second signal with respect to the capacitance (C eg), called electrode-guard capacitance, between said electrodes (106, 108), representative of a pressure or a load, exerted by said object on said detection surface. - at least one measurement electrode; - at least one electrode, called guard electrode; and - a measurement electronics for measuring a signal with respect to the electrical capacitance of said measurement electrode; - one and the same first alternating electrical potential (V g), or - first, substantially identical, alternating potentials;
A bagless vacuum cleaner, comprising a cyclonic separator having a cyclone tube, and a bucket for containing a liquid, wherein a diameter of the bucket is at least 2 times a diameter of the cyclone tube.