mhurhangee/ep-ind-claims huggingface dataset:
A method for recognizing an object employed by an electronic device, characterized by: capturing an image using a camera module; transmitting information recognized from the captured image to an external electronic device connected with the electronic device via a communication network; receiving information associated with the recognized information from the external electronic device; and displaying the received information on a display; wherein the recognizing of the information from the captured image comprises: detecting a finger image in a predetermined partial region of the captured image of an entire region of the captured image, where the predetermined partial region is set according to a wearing position of the electronic device; and detecting at least one object in a region of predetermined size that is located adjacent to a position at which the finger image is detected in the captured image. capturing an image using a camera module; transmitting information recognized from the captured image to an external electronic device connected with the electronic device via a communication network; receiving information associated with the recognized information from the external electronic device; and displaying the received information on a display; wherein the recognizing of the information from the captured image comprises: detecting a finger image in a predetermined partial region of the captured image of an entire region of the captured image, where the predetermined partial region is set according to a wearing position of the electronic device; and detecting at least one object in a region of predetermined size that is located adjacent to a position at which the finger image is detected in the captured image. detecting a finger image in a predetermined partial region of the captured image of an entire region of the captured image, where the predetermined partial region is set according to a wearing position of the electronic device; and detecting at least one object in a region of predetermined size that is located adjacent to a position at which the finger image is detected in the captured image.
Conductor connection terminal for connecting electrical conductors (2a, 2b) to a busbar, the conductor connection terminal having an insulating material housing with at least two conductor insertion openings (11a, 11b, 11c) and a conductor connection space adjoining the conductor insertion openings (11a, 11b, 11c), a busbar and a clamping spring (4a, 4b) for a spring-loaded clamping connection, and wherein the clamping spring (4a, 4b) has a clamping limb (5a, 5b) and a contact limb (6a, 6b) which are connected to one another by a spring bow (7a, 7b), wherein the contact limb (6a, 6b) of the clamping spring (4a, 4b) has a separating section (9a, 9b), by means of which the conductor connection space can be divided into at least two spatially separate conductor connection chambers (13a, 13b, 13c), characterized in that the busbar has a recess on each connection side through which the contact limb (6a, 6b) is guided and is mounted on a support, wherein the contact limb (6a, 6b) is mounted on at least one clamping spring (4a, 4b) on the busbar and, starting from the spring bow (7a, 7b) behind the support of the contact limb (6a, 6b) on the busbar, has an elastic, deflectable spring section with a run-up slope for guiding the conductor (2a, 2b) to be connected.
A device for die-casting metal material, comprising a screw unit for bringing the material into a thixotropic state and a cylinder/piston unit fed by the screw unit for applying pressure to the thixotropic material for the die casting, characterised in that a thermally controllable valve is arranged between the screw unit and the cylinder/piston unit.
Impregnated fiber tube for internally lining conduits and pipes, said fiber tube comprising: a. an outer layer, b. a resin-impregnated fiber tube layer, c. an anchoring layer, and d. an inner polymer layer including at least one barrier ply, and wherein the inner polymer layer comprises at least one longitudinal seam, and wherein the thickness of the anchoring layer is within a range of 30 to 500 μm a. an outer layer, b. a resin-impregnated fiber tube layer, c. an anchoring layer, and d. an inner polymer layer including at least one barrier ply, and
A fine ratio measuring device for measuring the ratio of fines adhering to the surface of a material in the form of lumps, the fine ratio measuring device comprising: an illumination unit configured to illuminate the material in the form of lumps; a spectrometer configured to perform spectral analysis on light reflected from the material in the form of lumps to measure spectral reflectance; and an arithmetic device configured to extract at least one feature quantity from the spectral reflectance measured by the spectrometer and compute the fine ratio from the extracted at least one feature quantity, wherein the at least one feature quantity is at least one score of at least one basis vector of at least one predetermined principal component obtained by subjecting spectral reflectances at a plurality of wavelengths to principal component analysis, the spectral reflectances being measured by the spectrometer, the score being strongly correlated with a change in the fine ratio, wherein the arithmetic device includes an arithmetic unit and a storage unit, wherein a relational expression between the fine ratio and the at least one score is prestored in the storage unit, and wherein the arithmetic unit is configured to compute a plurality of scores from the spectral reflectances at the plurality of wavelengths and then compute a the fine ratio using the relational expression and a number of scores which is less than the plurality of wavelengths, and wherein said plurality of wavelengths includes both of at least one absorption wavelength of water and at least one wavelength other than an absorption wavelength of water. an illumination unit configured to illuminate the material in the form of lumps; a spectrometer configured to perform spectral analysis on light reflected from the material in the form of lumps to measure spectral reflectance; and an arithmetic device configured to extract at least one feature quantity from the spectral reflectance measured by the spectrometer and compute the fine ratio from the extracted at least one feature quantity, wherein the at least one feature quantity is at least one score of at least one basis vector of at least one predetermined principal component obtained by subjecting spectral reflectances at a plurality of wavelengths to principal component analysis, the spectral reflectances being measured by the spectrometer, the score being strongly correlated with a change in the fine ratio, wherein the arithmetic device includes an arithmetic unit and a storage unit, wherein a relational expression between the fine ratio and the at least one score is prestored in the storage unit, and wherein the arithmetic unit is configured to compute a plurality of scores from the spectral reflectances at the plurality of wavelengths and then compute a the fine ratio using the relational expression and a number of scores which is less than the plurality of wavelengths, and wherein said plurality of wavelengths includes both of at least one absorption wavelength of water and at least one wavelength other than an absorption wavelength of water.
A master/slave communication system in which one master is connected to one or multiple slaves through a serial transmission line, and control data is exchanged between the master and the slaves in a predetermined communication period, the master comprising means for registering, for each of the slaves, an expected communication time needed to exchange the control data, the system characterized by the master further comprising: means for registering the slave in which a communication error is detected during exchange of the control data in the communication period, and means for re-executing exchange of the control data with the registered slave in the same communication period as that in which the communication error is detected, wherein the means for re-executing exchange of the control data calculates a remaining resending time that can be used to re-execute exchange of the control data and, when the remaining resending time is longer than the expected communication time of the registered slave, resends the control data. means for registering the slave in which a communication error is detected during exchange of the control data in the communication period, and means for re-executing exchange of the control data with the registered slave in the same communication period as that in which the communication error is detected, wherein the means for re-executing exchange of the control data calculates a remaining resending time that can be used to re-execute exchange of the control data and, when the remaining resending time is longer than the expected communication time of the registered slave, resends the control data.
Use of a composition comprising at least one lubricant based on polyol esters (POEs) obtained from polyols which have a neopentyl backbone or a backbone of PVE which is a copolymer of the following two units 1 and 2: and a refrigerant F comprising 3,3,3-trifluoropropene, in air-conditioning and heat pumps.
Connector for connecting two profiles (1, 2), wherein the connector has a main body which is traversed at least in certain portions by a clamping screw which can be or is screwed into a clamping nut, having an adapter which can be or is fastened to the main body and which has a main portion which extends in the direction of the clamping nut and which has a predetermined width (b), whereby it serves as a positioning aid and/or anti-twist safeguard for the two profiles (1, 2), characterized in that the adapter can be or is fastened in a form-fitting manner by way of a sliding connection, wherein the sliding connection has an undercut fastening groove and an approximately T-shaped fastening portion which can be or is inserted therein, wherein an insertion direction is perpendicular to the main body.
A rotating electrical machine, comprising: a plurality of permanent magnets (11, 14, 15) arranged along an inner peripheral surface of a cylindrical yoke at predetermined intervals in a circumferential direction; a magnet cover (12, 32, 33, 34, 35, 36, 37) for covering an inner peripheral surface and both circumferential side surfaces of each of the plurality of permanent magnets, the magnet cover comprising locking portions (12c, 12'c, 33a) on outer sides of both the circumferential side surfaces; and a magnet holder (13, 43,44, 45, 46, 47,48) made of a non-magnetic material, which is formed by coupling a columnar portion (13a, 43a, 44a) provided between adjacent permanent magnets, for retaining the each of the plurality of permanent magnets in the circumferential direction, and an annular portion for covering each axial side surface of the each of the plurality of permanent magnets, wherein the magnet holder comprises, on an outer diameter side of both circumferential side surfaces of the columnar portion, engaging portions (13c, 43c) which engage with the respective locking portions of the magnet cover, characterized in that the magnet holder further comprises, on an inner diameter side of each of both the circumferential side surfaces of the columnar portion, a first extending portion (13d, 44d) extending toward an inner peripheral surface of the magnet cover with a clearance with respect to the inner peripheral surface of the magnet cover. a plurality of permanent magnets (11, 14, 15) arranged along an inner peripheral surface of a cylindrical yoke at predetermined intervals in a circumferential direction; a magnet cover (12, 32, 33, 34, 35, 36, 37) for covering an inner peripheral surface and both circumferential side surfaces of each of the plurality of permanent magnets, the magnet cover comprising locking portions (12c, 12'c, 33a) on outer sides of both the circumferential side surfaces; and a magnet holder (13, 43,44, 45, 46, 47,48) made of a non-magnetic material, which is formed by coupling a columnar portion (13a, 43a, 44a) provided between adjacent permanent magnets, for retaining the each of the plurality of permanent magnets in the circumferential direction, and an annular portion for covering each axial side surface of the each of the plurality of permanent magnets, wherein the magnet holder comprises, on an outer diameter side of both circumferential side surfaces of the columnar portion, engaging portions (13c, 43c) which engage with the respective locking portions of the magnet cover,
An operating device expansion, expanding an operating device by being connected via a connector, which is used with said operating device as a single unit, comprising: a housing; a first connector having a first shape physically and electrically connectable to a connector provided to said operating device; a second connector having a second shape connectable to a connector having said first shape, and a sensor, wherein said sensor is a motion sensor for detecting a motion of itself; characterized in that the operating device expansion further comprises: a motion determining means for determining a size of each parameter of the motion detected by said motion sensor; and a motion data output controlling means (102, 102a, 102b) for outputting first motion data with low accuracy in a case that the size of a parameter of the said motion is large, and outputting second motion data having data amount the same as that of said first motion data and having high accuracy in a case that the size of a parameter of the said motion is small. a housing; a first connector having a first shape physically and electrically connectable to a connector provided to said operating device; a second connector having a second shape connectable to a connector having said first shape, and a sensor, wherein said sensor is a motion sensor for detecting a motion of itself; characterized in that the operating device expansion further comprises: a motion determining means for determining a size of each parameter of the motion detected by said motion sensor; and a motion data output controlling means (102, 102a, 102b) for outputting first motion data with low accuracy in a case that the size of a parameter of the said motion is large, and outputting second motion data having data amount the same as that of said first motion data and having high accuracy in a case that the size of a parameter of the said motion is small. a motion determining means for determining a size of each parameter of the motion detected by said motion sensor; and a motion data output controlling means (102, 102a, 102b) for outputting first motion data with low accuracy in a case that the size of a parameter of the said motion is large, and outputting second motion data having data amount the same as that of said first motion data and having high accuracy in a case that the size of a parameter of the said motion is small.
A circuit substrate comprising: a first drive circuit (50-a1) that includes a first transistor and that is configured to output a first drive signal (COMA) that drives a first drive element; a second drive circuit (50-B1) that includes a second transistor and is configured to output a second drive signal (COMB) that drives the first drive element, the first drive circuit is mounted on a first surface of the circuit substrate, the second drive circuit is mounted on a second surface of the circuit substrate, and the first transistor and the second transistor are disposed at positions that do not overlap one another in plan view of the circuit substrate; and an implementation area of the first drive circuit and an implementation area of the second drive circuit at least partially overlap one another in plan view of the circuit substrate. a first drive circuit (50-a1) that includes a first transistor and that is configured to output a first drive signal (COMA) that drives a first drive element; a second drive circuit (50-B1) that includes a second transistor and is configured to output a second drive signal (COMB) that drives the first drive element, the first drive circuit is mounted on a first surface of the circuit substrate, the second drive circuit is mounted on a second surface of the circuit substrate, and the first transistor and the second transistor are disposed at positions that do not overlap one another in plan view of the circuit substrate; and an implementation area of the first drive circuit and an implementation area of the second drive circuit at least partially overlap one another in plan view of the circuit substrate.
A holder block for retaining a temperature sensor in a cooking apparatus containing a cooking medium, comprising: a base portion configured to operatively engage at least a lower portion of the temperature sensor and configured to operatively engage at least a lower portion of at least one heating element (70, 72); a cap portion removably attachable to the base portion, the cap portion being configured to operatively engage at least an upper portion of the temperature sensor and configured to operatively engage at least an upper portion of the at least one heating element (70, 72); wherein the base portion and cap portion are moveable relative to each other such that movement of the base portion and cap portion toward each other provides a first clamping action on the at least one heating element (70, 72) and a second clamping action on the temperature sensor to define a clamped position of the holder block, the holder block being characterized in that, when in the clamped position, the base portion and cap portion provide a plurality of conductive thermal paths between the at least one heating element (70, 72) and the temperature sensor and define a plurality of apertures (220, 222, 224, 226) providing a plurality of convective thermal paths between the at least one heating element (70, 72) and the temperature sensor through the cooking medium. a base portion configured to operatively engage at least a lower portion of the temperature sensor and configured to operatively engage at least a lower portion of at least one heating element (70, 72); a cap portion removably attachable to the base portion, the cap portion being configured to operatively engage at least an upper portion of the temperature sensor and configured to operatively engage at least an upper portion of the at least one heating element (70, 72); wherein the base portion and cap portion are moveable relative to each other such that movement of the base portion and cap portion toward each other provides a first clamping action on the at least one heating element (70, 72) and a second clamping action on the temperature sensor to define a clamped position of the holder block, the holder block being characterized in that, when in the clamped position, the base portion and cap portion provide a plurality of conductive thermal paths between the at least one heating element (70, 72) and the temperature sensor and define a plurality of apertures (220, 222, 224, 226) providing a plurality of convective thermal paths between the at least one heating element (70, 72) and the temperature sensor through the cooking medium.
A microbeam processing system for providing a process gas to a sample chamber having a controlled environment, comprising: a sample chamber for processing a work piece in a controlled environment; a gas injection system including: a gas source for providing a process gas; a flow rate control valve to adjust the flow rate of the process gas from the gas source; a shut off valve; a first conduit from the flow rate control valve to the shut off valve; a second conduit from the shut off valve to the sample chamber; and a sealed cabinet containing the gas source; and a beam source for providing a beam to process the work piece by initiating a reaction of the process gas with the work piece surface; characterized by: the sealed cabinet extending through the wall of the vacuum chamber and connected to the vacuum in the sample chamber, the sealed cabinet maintaining the gas source, the flow rate control valve, and the shut-off valve, in a vacuum environment during operation and the sealed cabinet being vacuum isolatable from the sample chamber for replacing or refilling gas source; the flow rate control valve is positioned in the sealed cabinet outside the sample chamber to adjust the flow rate of the process gas from the gas source; and the shut off valve is positioned in the sealed cabinet inside the sample chamber. a sample chamber for processing a work piece in a controlled environment; a gas injection system including: a gas source for providing a process gas; a flow rate control valve to adjust the flow rate of the process gas from the gas source; a shut off valve; a first conduit from the flow rate control valve to the shut off valve; a second conduit from the shut off valve to the sample chamber; and a sealed cabinet containing the gas source; and a gas source for providing a process gas; a flow rate control valve to adjust the flow rate of the process gas from the gas source; a shut off valve; a first conduit from the flow rate control valve to the shut off valve; a second conduit from the shut off valve to the sample chamber; and a sealed cabinet containing the gas source; and a beam source for providing a beam to process the work piece by initiating a reaction of the process gas with the work piece surface; the sealed cabinet extending through the wall of the vacuum chamber and connected to the vacuum in the sample chamber, the sealed cabinet maintaining the gas source, the flow rate control valve, and the shut-off valve, in a vacuum environment during operation and the sealed cabinet being vacuum isolatable from the sample chamber for replacing or refilling gas source; the flow rate control valve is positioned in the sealed cabinet outside the sample chamber to adjust the flow rate of the process gas from the gas source; and the shut off valve is positioned in the sealed cabinet inside the sample chamber.
Extruder for processing feed material that consists, at least partly, of low bulk density, fine-grained particles, wherein the extruder possesses a feed section, wherein the feed material is transported with gas through a conduit to the feed section, wherein the conduit, upstream of the feed section, leads into a feed housing, wherein a filter, composed of at least two porous filter discs, is provided in the feed housing, wherein the filter discs are formed by filter particles that are connected to one another, wherein a suction pipe is connected to the filter, such that the gas from the feed housing is drawn off and the feed material is filtered out of the gas in the feed housing, wherein a crammer screw is provided in the feed housing, and said crammer screw removes all particles in its access area from the filter discs and pushes the removed particles into the inlet opening of the extruder, characterised in that flat filter discs are used and the same filter discs are used for different feed housings.