mhurhangee/ep-ind-claims huggingface dataset:
A safety control system for a gas water heater, comprising: an exhaust fan, configured to exhaust waste gas generated when the gas water heater burns gas; a rotational speed detecting unit, configured to detect a rotational speed of the exhaust fan; a power obtaining unit, configured to obtain a set value for output power of the exhaust fan; a rotational speed difference obtaining unit, configured to obtain an actual value of the rotational speed and a reference value of the rotational speed according to the set value for the output power, and to calculate a difference between the actual value of the rotational speed and the reference value of the rotational speed; and an exhaust control unit, connected to the exhaust fan, the rotational speed detecting unit, the rotational speed difference obtaining unit and the power obtaining unit respectively, and configured to correct a predetermined wind pressure curve graph at an air outlet of the exhaust fan according to the difference, to determine a wind pressure situation at the air outlet according to the rotational speed, a corrected wind pressure curve graph (R1+dn, R2+dn, R3+dn) and the set value for the output power, (fan-P) and to adjust the set value for the output power according to the wind pressure situation, wherein the predetermined wind pressure curve graph comprises a plurality of curves (R1, R2, R3) each indicating a predetermined rotational speed as a function of the set value for the output power. an exhaust fan, configured to exhaust waste gas generated when the gas water heater burns gas; a rotational speed detecting unit, configured to detect a rotational speed of the exhaust fan; a power obtaining unit, configured to obtain a set value for output power of the exhaust fan; a rotational speed difference obtaining unit, configured to obtain an actual value of the rotational speed and a reference value of the rotational speed according to the set value for the output power, and to calculate a difference between the actual value of the rotational speed and the reference value of the rotational speed; and an exhaust control unit, connected to the exhaust fan, the rotational speed detecting unit, the rotational speed difference obtaining unit and the power obtaining unit respectively, and configured to correct a predetermined wind pressure curve graph at an air outlet of the exhaust fan according to the difference, to determine a wind pressure situation at the air outlet according to the rotational speed, a corrected wind pressure curve graph (R1+dn, R2+dn, R3+dn) and the set value for the output power, (fan-P) and to adjust the set value for the output power according to the wind pressure situation, wherein the predetermined wind pressure curve graph comprises a plurality of curves (R1, R2, R3) each indicating a predetermined rotational speed as a function of the set value for the output power.
A method for providing adjustable frequency band at a wireless device, the method comprising: electrically decoupling a tuning stub from a first antenna and a second antenna of the wireless device to enable a low frequency band for the first antenna and a high frequency band for the second antenna; and upon determining to change the low frequency band or the high frequency band, electrically coupling the tuning stub to the first antenna and the second antenna to shift the low frequency band and the high frequency band; wherein the tuning stub is electrically coupled to and decoupled from the first antenna and the second antenna using a two-state switch, and wherein the two-state switch is set to an ON state that allows current flow between the tuning stub and each of the first antenna and the second antenna or set to an OFF state to prevent current flow between the tuning stub and each of the first antenna and the second antenna. electrically decoupling a tuning stub from a first antenna and a second antenna of the wireless device to enable a low frequency band for the first antenna and a high frequency band for the second antenna; and upon determining to change the low frequency band or the high frequency band, electrically coupling the tuning stub to the first antenna and the second antenna to shift the low frequency band and the high frequency band; wherein the tuning stub is electrically coupled to and decoupled from the first antenna and the second antenna using a two-state switch, and wherein the two-state switch is set to an ON state that allows current flow between the tuning stub and each of the first antenna and the second antenna or set to an OFF state to prevent current flow between the tuning stub and each of the first antenna and the second antenna.
Vehicle (10, 10.4) for transporting at least one passenger car (12, 12'), - with a closed box body (14, 14.4), - with a platform (20, 20.4), - wherein the platform (20, 20.4) in its transporting position is within the box body (14, 14.4), - wherein the platform (20, 20.4) can be brought out of this transporting position into a loading position, in which the rear end (26, 26.4) of the platform (20, 20.4) rests on the roadway and the front end of the platform (20, 20.4) is secured in the region of the rear loading opening (44, 44.4) of the box body (14, 14.4), - wherein there is at least one lifting element, by which the front end of the platform (20, 20.4) in its loading position can be lowered approximately vertically so that also the front end of the platform (20, 20.4) rests on the roadway, - characterized in that - the at least one lifting element is formed as a lifting cylinder and is secured on a supporting device, - the supporting device is mounted longitudinally displaceably within the box body (14, 14.4), - the front end of the platform (20, 20.4) can be pushed in and out of the box body by the supporting device. - with a closed box body (14, 14.4), - with a platform (20, 20.4), - wherein the platform (20, 20.4) in its transporting position is within the box body (14, 14.4), - wherein the platform (20, 20.4) can be brought out of this transporting position into a loading position, in which the rear end (26, 26.4) of the platform (20, 20.4) rests on the roadway and the front end of the platform (20, 20.4) is secured in the region of the rear loading opening (44, 44.4) of the box body (14, 14.4), - wherein there is at least one lifting element, by which the front end of the platform (20, 20.4) in its loading position can be lowered approximately vertically so that also the front end of the platform (20, 20.4) rests on the roadway, - characterized in that - the at least one lifting element is formed as a lifting cylinder and is secured on a supporting device, - the supporting device is mounted longitudinally displaceably within the box body (14, 14.4), - the front end of the platform (20, 20.4) can be pushed in and out of the box body by the supporting device.
Acomposition comprising a legume albumin and a pregelatinized starch in a respective weight ratio comprised between 0.9:0.1 and 0.6:0.4, preferentially comprised between 0.8:0.2 and 0.7:0.3, even more preferentially 0.75:0.25, and comprising no non-starch polysaccharide.
A detector for reading out a state of a qubit, the detector comprising: a flux qubit; a flux bias generator, wherein the flux qubit comprises: an inductor; a SQUID loop comprising at least one Josephson junction; and a capacitor, wherein the inductor, the at least one Josephson junction and the capacitor are connected to each other in parallel, wherein the flux qubit is arranged to exhibit a first flux state and a second flux state, wherein the flux bias generator is configured to generate a first flux bias through the inductor and a second flux bias through the SQUID loop, wherein the flux qubit is configured such that, in response to a first value of the first flux bias, the energies of the first and the second flux states are substantially identical and such that, in response to a second value of the first flux bias, the energies of the first and the second flux states are different, and wherein, in response to a first value of the second flux bias, the flux qubit is configured to be coupled to the qubit and, in response to a second value of the second flux bias, to be decoupled from the qubit and to suppress tunneling between the first and the second flux states; and a measurement unit, wherein the measurement unit is configured to determine whether the flux qubit is in the first flux state or the second flux state and to output a signal in dependence on whether the flux qubit is in the first flux state or in the second flux state. a flux qubit; a flux bias generator, wherein the flux qubit comprises: an inductor; a SQUID loop comprising at least one Josephson junction; and a capacitor, an inductor; a SQUID loop comprising at least one Josephson junction; and a capacitor, wherein the inductor, the at least one Josephson junction and the capacitor are connected to each other in parallel, wherein the flux qubit is arranged to exhibit a first flux state and a second flux state, wherein the flux bias generator is configured to generate a first flux bias through the inductor and a second flux bias through the SQUID loop, wherein the flux qubit is configured such that, in response to a first value of the first flux bias, the energies of the first and the second flux states are substantially identical and such that, in response to a second value of the first flux bias, the energies of the first and the second flux states are different, and wherein, in response to a first value of the second flux bias, the flux qubit is configured to be coupled to the qubit and, in response to a second value of the second flux bias, to be decoupled from the qubit and to suppress tunneling between the first and the second flux states; and a measurement unit, wherein the measurement unit is configured to determine whether the flux qubit is in the first flux state or the second flux state and to output a signal in dependence on whether the flux qubit is in the first flux state or in the second flux state.
A hearing protection and noise recording system, HPRS, comprising: a noise reduction element to attenuate external noise to a predetermined in-ear threshold noise level; at least one analog to digital converter to digitize one or more signals from the noise reduction element; a controller capable of bidirectional communication with the at least one analog to digital converter to process output from the at least one analog to digital converter and control the operation of the hearing protection and recording system; a recording element capable of bidirectional communication with the controller to record at least one of in-ear noise levels and the external noise levels in the form of raw data or processed data output from the controller wherein the recorded output is transmitted at predetermined intervals to an end device; wherein the controller is configured for determining that the hearing protection and noise recording system is not being used in compliance with standard operating procedures if the difference between the external noise level and the in-ear noise level is less than target attenuation; characterized in that the noise reduction element comprises a pair of non-linear passive ear plugs configured to pass low level sounds with minimal attenuation and selectively block loud continuous or impulse noise as external noise levels increase. a noise reduction element to attenuate external noise to a predetermined in-ear threshold noise level; at least one analog to digital converter to digitize one or more signals from the noise reduction element; a controller capable of bidirectional communication with the at least one analog to digital converter to process output from the at least one analog to digital converter and control the operation of the hearing protection and recording system; a recording element capable of bidirectional communication with the controller to record at least one of in-ear noise levels and the external noise levels in the form of raw data or processed data output from the controller wherein the recorded output is transmitted at predetermined intervals to an end device; wherein the controller is configured for determining that the hearing protection and noise recording system is not being used in compliance with standard operating procedures if the difference between the external noise level and the in-ear noise level is less than target attenuation; characterized in that the noise reduction element comprises a pair of non-linear passive ear plugs configured to pass low level sounds with minimal attenuation and selectively block loud continuous or impulse noise as external noise levels increase.
An exhibition display system comprising display bodies assembled together into required configurations by interengaging paired male joints and female interfaces, wherein male joints are provided with a bulge, a stopping edge is arranged on the bulge, a recess is arranged on the female interfaces, and a stopping groove is arranged on the inner wall of the recess, wherein a male joint is adapted to interengage with a female interface when the bulge is inserted into the recess and the stopping edge is located in the stopping groove; characterized in that the paired male joints and female interfaces are detachable from the display bodies; a locating protrusion is arranged on the bulge, a locating slot is arranged on the inner wall of the recess, and the locating protrusion is located in the locating slot; each of the male joints comprises two traverse plates parallel to each other and an upright plate connecting to the two traverse plates in a direction perpendicular to the traverse plates, the stopping edge and the locating protrusion are provided on an outer surface of each of the two traverse plates, the stopping edge extends in a first direction parallel to a ridge where the traverse plates intersect with the upright plate, and the locating protrusion extends in a second direction orthogonal to the first direction; and each of the female interfaces comprises two horizontal plates parallel to each other and a vertical plate connecting to the two horizontal plates in a direction perpendicular to the horizontal plates, the two horizontal plates and the vertical plate form a U-shape, and an inner surface of each of the two horizontal plates is provided with the stopping groove and the locating slot adapted for retaining the stopping edge and the locating protrusion respectively. a locating protrusion is arranged on the bulge, a locating slot is arranged on the inner wall of the recess, and the locating protrusion is located in the locating slot; each of the male joints comprises two traverse plates parallel to each other and an upright plate connecting to the two traverse plates in a direction perpendicular to the traverse plates, the stopping edge and the locating protrusion are provided on an outer surface of each of the two traverse plates, the stopping edge extends in a first direction parallel to a ridge where the traverse plates intersect with the upright plate, and the locating protrusion extends in a second direction orthogonal to the first direction; and each of the female interfaces comprises two horizontal plates parallel to each other and a vertical plate connecting to the two horizontal plates in a direction perpendicular to the horizontal plates, the two horizontal plates and the vertical plate form a U-shape, and an inner surface of each of the two horizontal plates is provided with the stopping groove and the locating slot adapted for retaining the stopping edge and the locating protrusion respectively.
Detent mechanism for a motor vehicle component, in particular a motor vehicle lock, comprising a pivotable holding part and a pivotable blocking part, the holding part being pivotable into a closing position, in particular a pre-closing position and a main closing position, and into an open position about a holding part axis, a blocking state being produced by the blocking part being pivotable into a blocking position in which a blocking surface of the blocking part and a blocking surface (8, 9) of the holding part are in blocking engagement with each other and block a pivoting movement of the holding part out of the closing position in the direction of the open position, the blocking part being pivotable into a release position in which the blocking surfaces (7, 8, 9) are disengaged from each other and release the holding part, characterized in that, in the blocking state, in order to limit an axial offset, with respect to the holding part axis, between the blocking surfaces (7; 8, 9), a supporting surface of the blocking part and a supporting surface (14, 15) of the holding part are in axially supporting engagement with each other or can be brought into axially supporting engagement with each other, the holding part is a lock latch of a motor vehicle lock, which lock latch, when a fitted motor vehicle lock is in the closing position, is in holding engagement with a striker or the like, and the blocking part is a pawl of the motor vehicle lock characterized in that that supporting portion (13a, 21) of the pawl which provides the supporting surface provides an engagement depth limit for the pawl the supporting portion comes into engagement with a limit contour at a predetermined engagement depth of the pawl,
A control logic for controlling AC power supplied to each phase of a multi-phase AC electric motor from a plurality of interchangeable units; wherein each interchangeable unit comprises: an AC output; a battery comprising at least one battery cell; and an inverter for supplying AC power to the AC output based on energy from the battery, characterized in that each interchangeable unit comprises a battery management system configured to control charge supplied to and/or from the at least one battery cell of a battery; and wherein the control logic is configured to send signals to each of the interchangeable units based on the desired torque of the multi-phase AC electric motor to control the output of AC power from each of the interchangeable units. wherein each interchangeable unit comprises: an AC output; a battery comprising at least one battery cell; and an inverter for supplying AC power to the AC output based on energy from the battery, characterized in that each interchangeable unit comprises a battery management system configured to control charge supplied to and/or from the at least one battery cell of a battery; and an AC output; a battery comprising at least one battery cell; and an inverter for supplying AC power to the AC output based on energy from the battery, characterized in that each interchangeable unit comprises a battery management system configured to control charge supplied to and/or from the at least one battery cell of a battery; and wherein the control logic is configured to send signals to each of the interchangeable units based on the desired torque of the multi-phase AC electric motor to control the output of AC power from each of the interchangeable units.
An underarm sweat pad to be attached to an inner side of an axillary portion of a garment and used while being bent in two parts at a folding line, in which an absorbent body is interposed between a liquid-permeable front surface sheet and a liquid-impermeable back surface sheet, wherein the front surface sheet is made of a hydrophilic cellulosic fiber, and debossed grooves recessed to a non-skin side of the front surface sheet are formed on a skin-side surface of the front surface sheet; characterized in that the underarm sweat pad further comprises adhesive regions 15 in which an adhesive bonds the front surface sheet to the absorbent body, said adhesive regions formed as stripes that are parallel to the folding line and being spaced at intervals in a direction orthogonal to the folding line, and in that the debossed grooves are formed along a direction in which the adhesive regions extend, overlapping each of the adhesive regions. wherein the front surface sheet is made of a hydrophilic cellulosic fiber, and debossed grooves recessed to a non-skin side of the front surface sheet are formed on a skin-side surface of the front surface sheet; characterized in that the underarm sweat pad further comprises adhesive regions 15 in which an adhesive bonds the front surface sheet to the absorbent body, said adhesive regions formed as stripes that are parallel to the folding line and being spaced at intervals in a direction orthogonal to the folding line, and in that the debossed grooves are formed along a direction in which the adhesive regions extend, overlapping each of the adhesive regions.
A data conversion device comprising: a layerdata division section configured to generate layerdata by dividing a target object into layers each having a thickness capable of being shaped by an inkjet method based on three-dimensional data of the target object to be subjected to lamination shaping; a grid data generation section configured to generate grid data by defining the layer data by grid regions arranged in a matrix, each indicating a position to which a droplet is to be ejected by the inkjet method; and an ejection position change section configured to change the grid data, characterized by an impact diameter determination section configured to determine an impact diameter when the droplet is ejected, wherein in a case (Figs. 12, 13) wherein the grid regions form a rectangular shape and are arranged along a first direction and a second direction perpendicularto the first direction and the size of the impact diameter is 2N times the size of the grid region, N being a natural number, the ejection position change section sets the N number of the grid regions from the edge portion along the first direction as non-ejection regions, to each of which the droplet is not to be ejected, and deviates grid regions other than the non-ejection regions, toward the non-ejection regions along the second direction by a distance obtained by multiplying a length of one side in the grid region along the second direction by a number obtained by subtracting a half from the number N. a layerdata division section configured to generate layerdata by dividing a target object into layers each having a thickness capable of being shaped by an inkjet method based on three-dimensional data of the target object to be subjected to lamination shaping; a grid data generation section configured to generate grid data by defining the layer data by grid regions arranged in a matrix, each indicating a position to which a droplet is to be ejected by the inkjet method; and an ejection position change section configured to change the grid data, characterized by an impact diameter determination section configured to determine an impact diameter when the droplet is ejected, wherein in a case (Figs. 12, 13) wherein the grid regions form a rectangular shape and are arranged along a first direction and a second direction perpendicularto the first direction and the size of the impact diameter is 2N times the size of the grid region, N being a natural number, the ejection position change section sets the N number of the grid regions from the edge portion along the first direction as non-ejection regions, to each of which the droplet is not to be ejected, and deviates grid regions other than the non-ejection regions, toward the non-ejection regions along the second direction by a distance obtained by multiplying a length of one side in the grid region along the second direction by a number obtained by subtracting a half from the number N.