mhurhangee/ep-ind-claims huggingface dataset:
Assembly constituted by: an articulator and an accessory which is separate from the articulator and on whose top the articulator can be placed for being inclined laterally, the articulator comprising - a fixed base to which an oscillating support is hinged along an axis adjustable in the space, - a positioning rod, - two casts of the dental arches fixed between the support and the base, the hinge along said axis simulating the biomechanics of the mandibular articulation, characterized in that the accessory comprises - a flat base plate on which the articulator may be placed and which is adapted for supporting the articulator in relation to a generic support plane, - means (230, 240,250) for laterally adjusting the inclination of the flat base plate, and thereby of the overlying articulator. an articulator and an accessory which is separate from the articulator and on whose top the articulator can be placed for being inclined laterally, the articulator comprising - a fixed base to which an oscillating support is hinged along an axis adjustable in the space, - a positioning rod, - two casts of the dental arches fixed between the support and the base, - a fixed base to which an oscillating support is hinged along an axis adjustable in the space, - a positioning rod, - two casts of the dental arches fixed between the support and the base, the hinge along said axis simulating the biomechanics of the mandibular articulation, the accessory comprises - a flat base plate on which the articulator may be placed and which is adapted for supporting the articulator in relation to a generic support plane, - means (230, 240,250) for laterally adjusting the inclination of the flat base plate, and thereby of the overlying articulator. - a flat base plate on which the articulator may be placed and which is adapted for supporting the articulator in relation to a generic support plane, - means (230, 240,250) for laterally adjusting the inclination of the flat base plate, and thereby of the overlying articulator.
A method of correcting a particle size distribution measurement result of a particle size distribution measuring apparatus, or calibrating the particle size distribution measuring apparatus that is adapted to measure a particle size distribution of particles contained in target gas to be measured, the method comprising: correcting the particle size distribution measurement result or calibrating the particle size distribution measuring apparatus, using a correction coefficient that is calculated based on the particle number measurement result of measuring the number of particles contained in the target gas to be measured using a condensation particle counter and a value indicating a counting efficiency of the condensation particle counter, as parameters, characterized in that the correction coefficient is obtained by weighting the particle number concentration for each size in the particle size distribution measurement result before correction using a value indicating the counting efficiency of the condensation particle counter for each corresponding size, and based on a relationship between an integrated particle number concentration obtained by integrating the respectively weighted particle number concentration and the particle number concentration obtained by the condensation particle counter. correcting the particle size distribution measurement result or calibrating the particle size distribution measuring apparatus, using a correction coefficient that is calculated based on the particle number measurement result of measuring the number of particles contained in the target gas to be measured using a condensation particle counter and a value indicating a counting efficiency of the condensation particle counter, as parameters, characterized in that the correction coefficient is obtained by weighting the particle number concentration for each size in the particle size distribution measurement result before correction using a value indicating the counting efficiency of the condensation particle counter for each corresponding size, and based on a relationship between an integrated particle number concentration obtained by integrating the respectively weighted particle number concentration and the particle number concentration obtained by the condensation particle counter.
Test method for a transmitter-receiver circuit including an antenna, which is connected to a processing unit arranged for receiving signals and converting the frequency of said signals, said transmitter-receiver circuit also including a power amplifier, which is connected to said antenna and arranged for sending transmission signals, said transmitter-receiver circuit further including a test module, whose operation is independent of the transmitting and receiving functionalities of the transmitter-receiver circuit and being liable to test the transmission and reception of said transmitter-receiver circuit, characterized in that it includes the steps consisting in: a) electrically connecting the test module to the processing unit of the transmitter-receiver circuit; b) testing the operation of the transmitter-receiver circuit in a first operating mode, which can be either a data transmission mode or a data reception mode, using the test module; c) testing the operation of the transmitter-receiver circuit in a second operating mode, which can be either a data reception mode or a data transmission mode, depending on whether step b) consisted of testing a data transmission mode or a data reception mode respectively, using the test module; and d) electrically disconnecting the test module from the processing unit. a) electrically connecting the test module to the processing unit of the transmitter-receiver circuit; b) testing the operation of the transmitter-receiver circuit in a first operating mode, which can be either a data transmission mode or a data reception mode, using the test module; c) testing the operation of the transmitter-receiver circuit in a second operating mode, which can be either a data reception mode or a data transmission mode, depending on whether step b) consisted of testing a data transmission mode or a data reception mode respectively, using the test module; and d) electrically disconnecting the test module from the processing unit.
Method for measuring and/or determining an adhesion coefficient between a wheel of a railway vehicle and a rail, on which the railway vehicle drives or moves, wherein the adhesion coefficient is measured and/or determined while braking or driving at least one wheel set of the railway vehicle during operation of the railway vehicle, wherein the adhesion coefficient is determined based on the torque equilibrium of the wheel of the railway vehicle, wherein the adhesion coefficient is determined in a cyclic manner by braking or driving at least one wheel set of the railway vehicle in a cyclic manner, wherein said wheel set is chosen in a cyclic manner from a set of at least two wheel sets; wherein the method further comprises using at least one of the following as input parameters for determining the adhesion coefficient: the weight force acting on the wheel; the wheel radius; and the braking force. wherein the adhesion coefficient is determined based on the torque equilibrium of the wheel of the railway vehicle, wherein the adhesion coefficient is determined in a cyclic manner by braking or driving at least one wheel set of the railway vehicle in a cyclic manner, wherein said wheel set is chosen in a cyclic manner from a set of at least two wheel sets; wherein the method further comprises using at least one of the following as input parameters for determining the adhesion coefficient: the weight force acting on the wheel; the wheel radius; and the braking force.
A sample sequence converter (11,12) that obtains a weighted frequency domain signal obtained by converting a frequency domain signal corresponding to an input acoustic signal, the weighted frequency domain signal being to be inputted to an encoder encoding the weighted frequency domain signal, or a weighted frequency domain signal corresponding to a weighted time domain signal corresponding to the weighted frequency domain signal obtained by converting the frequency domain signal corresponding to the input acoustic signal, the weighted time domain signal being to be inputted to an encoder encoding the weighted time domain signal, the sample sequence converter comprising: a representative value calculating part calculating, for each frequency section by a plurality of samples fewer than the number of frequency samples of a sample sequence of the frequency domain signal corresponding to the input acoustic signal, from the sample sequence of the frequency domain signal, a representative value of the frequency section from sample values of samples included in the frequency section, for each of predetermined time sections; and a signal companding part obtaining, for each of the predetermined time sections, a frequency domain sample sequence obtained by multiplying a weight according to a function value of the representative value by a companding function for which an inverse function can be defined and each of the samples corresponding to the representative value in the sample sequence of the frequency domain signal, as a sample sequence of the weighted frequency domain signal, characterized in that the frequency section by the plurality of samples are set so that the number of included samples is smaller for a frequency section corresponding to a lower frequency and is larger for a frequency section corresponding to a higher frequency. a representative value calculating part calculating, for each frequency section by a plurality of samples fewer than the number of frequency samples of a sample sequence of the frequency domain signal corresponding to the input acoustic signal, from the sample sequence of the frequency domain signal, a representative value of the frequency section from sample values of samples included in the frequency section, for each of predetermined time sections; and a signal companding part obtaining, for each of the predetermined time sections, a frequency domain sample sequence obtained by multiplying a weight according to a function value of the representative value by a companding function for which an inverse function can be defined and each of the samples corresponding to the representative value in the sample sequence of the frequency domain signal, as a sample sequence of the weighted frequency domain signal, characterized in that the frequency section by the plurality of samples are set so that the number of included samples is smaller for a frequency section corresponding to a lower frequency and is larger for a frequency section corresponding to a higher frequency.
An intelligent roadside unit, comprising: a circular track; a camera disposed on the circular track and movable along the circular track; a driver for driving the camera; a circular radar array, wherein the circular radar array comprises a plurality of radars detecting obstacle information in different directions of a road respectively, and the obstacle information comprises a distance between an obstacle and the intelligent roadside unit and a moving orientation of the obstacle; and a controller configured to judge whether there is a vehicle approaching and to acquire an approach direction of the vehicle according to the obstacle information detected by the plurality of radars, and to control the driver to drive the camera toward the approach direction for shooting, wherein the controller acquires distances between points on the obstacle and the intelligent roadside unit at the same time, and generates a point cloud image according to an image captured by the camera and the obstacle information detected by the radars; the controller is configured to send the point cloud image to an automatic car close to the intelligent roadside unit through a communicator coupled to the controller, to allow an automatic car adopting a corresponding control strategy according to the point cloud image. a circular track; a camera disposed on the circular track and movable along the circular track; a driver for driving the camera; a circular radar array, wherein the circular radar array comprises a plurality of radars detecting obstacle information in different directions of a road respectively, and the obstacle information comprises a distance between an obstacle and the intelligent roadside unit and a moving orientation of the obstacle; and a controller configured to judge whether there is a vehicle approaching and to acquire an approach direction of the vehicle according to the obstacle information detected by the plurality of radars, and to control the driver to drive the camera toward the approach direction for shooting, wherein the controller acquires distances between points on the obstacle and the intelligent roadside unit at the same time, and generates a point cloud image according to an image captured by the camera and the obstacle information detected by the radars; the controller is configured to send the point cloud image to an automatic car close to the intelligent roadside unit through a communicator coupled to the controller, to allow an automatic car adopting a corresponding control strategy according to the point cloud image.
An apparatus comprising: an elongated body having a tapered distal end and a proximal end that are aligned along an axis; distal and proximal electrical sensors (321; 322) disposed along a length of the elongated body and between the tapered distal end and the proximal end; an injection port on the elongated body between the distal and proximal electrical sensors (321; 322); a power source electrically coupled to the distal and proximal electrical sensors (321; 322); a computer having an input electrically coupled to the distal and proximal electrical sensors (321; 322) to receive first and second output signals, respectively, from the distal and proximal electrical sensors (321; 322); and a non-transitory computer-readable memory operatively coupled to the computer, the non-transitory computer-readable memory storing computer-readable instructions that, when executed by the computer, cause the computer to: analyze an electrical characteristic measured by the distal and proximal electrical sensors (321; 322); and produce an output control signal when the electrical characteristic measured by the distal and proximal electrical sensors (321; 322) indicates that the injection port is aligned with a target anatomical feature. an elongated body having a tapered distal end and a proximal end that are aligned along an axis; distal and proximal electrical sensors (321; 322) disposed along a length of the elongated body and between the tapered distal end and the proximal end; an injection port on the elongated body between the distal and proximal electrical sensors (321; 322); a power source electrically coupled to the distal and proximal electrical sensors (321; 322); a computer having an input electrically coupled to the distal and proximal electrical sensors (321; 322) to receive first and second output signals, respectively, from the distal and proximal electrical sensors (321; 322); and a non-transitory computer-readable memory operatively coupled to the computer, the non-transitory computer-readable memory storing computer-readable instructions that, when executed by the computer, cause the computer to: analyze an electrical characteristic measured by the distal and proximal electrical sensors (321; 322); and produce an output control signal when the electrical characteristic measured by the distal and proximal electrical sensors (321; 322) indicates that the injection port is aligned with a target anatomical feature. analyze an electrical characteristic measured by the distal and proximal electrical sensors (321; 322); and produce an output control signal when the electrical characteristic measured by the distal and proximal electrical sensors (321; 322) indicates that the injection port is aligned with a target anatomical feature.
A distributed antenna system, comprising: a head end unit configured to communicate channelized digital baseband signals with remotely located units, the channelized digital baseband signals including call information for wireless communication, the head end unit including circuitry (202, 204, 206, 208) configured to: receive downlink signals from at least one base station; process the downlink signals into downlink channelized digital baseband signals using a channelizer circuitry including a mixer (420, 421, 450, 451) associated with an oscillator (422, 452), a decimator (423, 424, 425, 426, 453, 454, 455, 456, 459, 460), and a channel filter (427, 461); format the downlink channelized digital baseband signals for transport together; packetize and packet schedule the downlink channelized digital baseband signals into downlink packetized baseband signals; and transmit the downlink packetized baseband signals to the remotely located units. receive downlink signals from at least one base station; process the downlink signals into downlink channelized digital baseband signals using a channelizer circuitry including a mixer (420, 421, 450, 451) associated with an oscillator (422, 452), a decimator (423, 424, 425, 426, 453, 454, 455, 456, 459, 460), and a channel filter (427, 461); format the downlink channelized digital baseband signals for transport together; packetize and packet schedule the downlink channelized digital baseband signals into downlink packetized baseband signals; and transmit the downlink packetized baseband signals to the remotely located units.
A vehicle lamp (100, 200) comprising: a light source (41, 341); and an optical member (44, 244) configured to reflect light from the light source (41, 341), wherein the light source (41, 341) comprises a base (42, 342) extending in a front-rear direction of the vehicle lamp (100, 200) and a plurality of surface light-emitting devices provided on side surfaces of the base (42, 342), wherein each surface light-emitting device is an electro-luminescence device, characterized in that each surface light-emitting device is firmly attached to side surfaces of the base so as to surround the base in a circumferential direction of the base, wherein the surface light-emitting devices are arranged side by side in a longitudinal direction of the base in which the base extends, with a gap provided between adjacent surface light-emitting devices, so as to project a concentric pattern on the optical member (44, 244), wherein, in a front view of the vehicle lamp (100, 200), the concentric pattern includes first regions having a light-emitting appearance by a reflection of the light from the surface light-emitting devices and second regions providing a dark appearance as the light is not projected on these regions corresponding to the gaps between adjacent surface light-emitting devices in the longitudinal direction of the base. a light source (41, 341); and an optical member (44, 244) configured to reflect light from the light source (41, 341), wherein the light source (41, 341) comprises a base (42, 342) extending in a front-rear direction of the vehicle lamp (100, 200) and a plurality of surface light-emitting devices provided on side surfaces of the base (42, 342), wherein each surface light-emitting device is an electro-luminescence device, characterized in that each surface light-emitting device is firmly attached to side surfaces of the base so as to surround the base in a circumferential direction of the base, wherein the surface light-emitting devices are arranged side by side in a longitudinal direction of the base in which the base extends, with a gap provided between adjacent surface light-emitting devices, so as to project a concentric pattern on the optical member (44, 244), wherein, in a front view of the vehicle lamp (100, 200), the concentric pattern includes first regions having a light-emitting appearance by a reflection of the light from the surface light-emitting devices and second regions providing a dark appearance as the light is not projected on these regions corresponding to the gaps between adjacent surface light-emitting devices in the longitudinal direction of the base.
Micromechanical component which can be brought into contact with a friction partner, comprising a basic body and also a surface which coats the basic body and is formed from diamond with sp 3 -hybridised carbon, a top layer being applied on the surface, which top layer can be brought into contact with the friction partner, the top layer being formed from a carbon layer with an increased proportion of sp 2 -hybridised C, relative to pure diamond, being electrically conductive and the surface having a termination and/or comprising in addition particles which reduce the surface tension.
A method of providing adaptive segmentation in a higher protocol layer (104; 112) interacting with a lower protocol layer (103; 111), the method comprising the following steps: - a) deploying an adaptable segmentation limit (200; 204) at said higher protocol layer (104; 112), which defines a threshold of a largest Protocol Data Unit, PDU, (202; 205; 206) to be submitted to said lower protocol layer (103; 111), wherein the adaptable segmentation limit is dynamically adapted on the basis of an indication, signalled from said lower protocol layer (103; 111), - b) determining at said higher protocol layer (104; 112) for each arriving Service Data Unit, SDU, (201; 203) if said SDU can fit into said segmentation limit or not, - c) segmenting at said higher protocol layer (104; 112) each SDU that do not fit into said segmentation limit into PDUs (205; 206) which are smaller than or equal to said segmentation limit, or, performing no segmentation on each SDU that fit into said segmentation limit, and, - d) submitting the resulting PDU/PDUs to said lower protocol layer (103; 111). - a) deploying an adaptable segmentation limit (200; 204) at said higher protocol layer (104; 112), which defines a threshold of a largest Protocol Data Unit, PDU, (202; 205; 206) to be submitted to said lower protocol layer (103; 111), wherein the adaptable segmentation limit is dynamically adapted on the basis of an indication, signalled from said lower protocol layer (103; 111), - b) determining at said higher protocol layer (104; 112) for each arriving Service Data Unit, SDU, (201; 203) if said SDU can fit into said segmentation limit or not, - c) segmenting at said higher protocol layer (104; 112) each SDU that do not fit into said segmentation limit into PDUs (205; 206) which are smaller than or equal to said segmentation limit, or, performing no segmentation on each SDU that fit into said segmentation limit, and, - d) submitting the resulting PDU/PDUs to said lower protocol layer (103; 111).