mhurhangee/ep-ind-claims huggingface dataset:
An AIRBAG CLIP of the type of clips which are used for the attachment of airbags, for example side-impact or curtain airbags, of the type formed by a body from which extend flexible elements providing support against the outer surface of the said clip which enters an attachment panel, also with descending tangs and side limbs offering surfaces which press against the inner surface of the said attachment panel in such a way that the said pressure surfaces and the contact surfaces provided by the said flexible supporting elements engage the said attachment panel on both its sides, in the form of a sandwich, enabling the clip to be supported on the said panel, the airbag clip being formed from a single folded and punched laminar surface forming the three-dimensional body of the said airbag clip, characterized in that the said pressure surfaces of the said ascending lateral limbs against the inner surface of the said attachment surface have a support in lateral tabs in the part where said ascending lateral limbs pass, increasing its performance against forces extracting the clip, and in that it includes a box formed by the junction of two surfaces which are approximately "U"-shaped in transverse cross-section, attached through two of their extremities, this junction between the said two surfaces being reinforced by tabs produced by division of the joining parts forming opposite surfaces located on the inner part of said box; the walls of said box having openings in which nails provided on said tabs, in which they engage through contact, forming the junction.
A body care system (100a-j) for cooling a body part, comprising - a brush unit including a plurality of airflow generating structures extending radially outwards with respect to a rotational axis of the brush unit; - a driving unit configured to drive the brush unit to rotate said brush unit about its rotational axis to generate, by the rotational motion of the airflow generating structures, an airflow in order to evaporate a cooling medium, wherein the rotational axis is configured to be substantially parallel to a surface of the body part during application of the body care system (100a-j); - a connecting unit connecting the brush unit to the driving unit; - a supplying unit arranged inside the brush unit for supplying the cooling medium to the plurality of airflow generating structures of the brush unit; and characterized in that the body care system further comprises a brush housing at least partially covering an outer surface of the brush unit, such that the surface of the body part to be cooled during application of the body care system and the brush unit covered by the brush housing are physically separated from each other by a part of the brush housing during application of the body care system. - a brush unit including a plurality of airflow generating structures extending radially outwards with respect to a rotational axis of the brush unit; - a driving unit configured to drive the brush unit to rotate said brush unit about its rotational axis to generate, by the rotational motion of the airflow generating structures, an airflow in order to evaporate a cooling medium, wherein the rotational axis is configured to be substantially parallel to a surface of the body part during application of the body care system (100a-j); - a connecting unit connecting the brush unit to the driving unit; - a supplying unit arranged inside the brush unit for supplying the cooling medium to the plurality of airflow generating structures of the brush unit; and
A machine tool configured to machine a workpiece by relatively moving a spindle on which a tool is attached and a table on which the workpiece is placed, the machine tool comprising: an image pickup device that picks up an image of the tool disposed at a predetermined image pickup position; a reflector disposed on a side opposite to the image pickup device with respect to the tool in a direction from the image pickup device toward the tool disposed at the image pickup position; a light source that irradiates a reflective surface of the reflector with light; and a control device that calculates a shape of the tool from the image of the tool picked up by the image pickup device, characterized in that the machine tool further comprises a partition wall that partitions between a machining chamber in which the workpiece is machined and a tool storage chamber in which the tool is stored, wherein the reflector is formed by a shutter supported by the partition wall, and the shutter is formed so as to be movable with respect to the partition wall. an image pickup device that picks up an image of the tool disposed at a predetermined image pickup position; a reflector disposed on a side opposite to the image pickup device with respect to the tool in a direction from the image pickup device toward the tool disposed at the image pickup position; a light source that irradiates a reflective surface of the reflector with light; and a control device that calculates a shape of the tool from the image of the tool picked up by the image pickup device, characterized in that the machine tool further comprises a partition wall that partitions between a machining chamber in which the workpiece is machined and a tool storage chamber in which the tool is stored, wherein the reflector is formed by a shutter supported by the partition wall, and the shutter is formed so as to be movable with respect to the partition wall.
A recording apparatus comprising: a recording unit configured to perform recording on a recording medium; a first transport path through which the recording medium can be transported in a first direction during the recording by the recording unit; and a second transport path which is coupled to the first transport path at a downstream position of the recording unit in the first direction and through which the recording medium recorded by the recording unit can be switched back from the first transport path and transported on a path that is different from the first transport path in a second direction that is different from the first direction for double-sided printing or face-down discharge, wherein a transport distance (L1, L2) between a position of the recording unit and a coupling position where the first transport path and the second transport path are coupled to each other at which switchback transport is started is configured to be changed. a recording unit configured to perform recording on a recording medium; a first transport path through which the recording medium can be transported in a first direction during the recording by the recording unit; and a second transport path which is coupled to the first transport path at a downstream position of the recording unit in the first direction and through which the recording medium recorded by the recording unit can be switched back from the first transport path and transported on a path that is different from the first transport path in a second direction that is different from the first direction for double-sided printing or face-down discharge, wherein a transport distance (L1, L2) between a position of the recording unit and a coupling position where the first transport path and the second transport path are coupled to each other at which switchback transport is started is configured to be changed.
A device for reducing noise and vibration of a rail having a rail foot and a rail web, said device comprising: at least one oscillation mass; at least one mounting member for fixing said at least one oscillation mass to said rail; at least one resilient layer that is disposed adjacent to said at least one oscillation mass and that is operative to separate said at least one oscillation mass from said at least one mounting member; characterised by surfaces of said at least one resilient layer being aligned perpendicular to a longitudinal direction of the said rail, such that the said at least one mounting member, at least one resilient layer, and at least one oscillation mass are aligned in series parallel to a longitudinal extent of the rail, whereby both vertical and lateral vibrations of the rail cause shear deformation of said at least one resilient layer, and the said oscillation mass vibrates along the shear direction of said at least one resilient layer, and vibration energy is dissipated in the said resilient layer by shearing hysteresis.
A signalling system for use with a plurality of power cells (Ci-1, Ci) each cell having a different supply voltage interval ((V(Ci-), V(Ci+)) and each cell having its respective signalling device (CMi) and whereby each signalling device (CMi) is powered by the correspondent power cell (Ci), the signalling system comprising: • at least an (i-1)-th and an i-th signalling device (CMi-1, CMi), and • a communication link for transmitting signals from an output terminal of said (i-1)-th signalling device (CMi-1) to an input terminal of said i-th signalling device (CMi), wherein said communication link consists of an electrical conducting connection; characterized in that • said (i-1)-th signalling device (CMi-1) comprises means (Qi-1 16, Rai-1 17) for varying the electrical potential at said output terminal in dependence upon the signal to be transmitted, • said i-th signalling device (CMi) comprises means for sensing via said communication link and said input terminal the variation of the electrical potential of said output terminal of the (i-1)-th signalling device (CMi-1) and for outputting a signal which varies in dependence upon the sensed variation of electrical potential, and • said i-th signalling device (CMi) further comprises means for limiting the variation of electrical potential at the output terminal of the (i-1)-th signalling device (CMi-1) to the supply voltage interval [V(Ci-1-), V(Ci-1+)] of said (i-1)-th signalling device, wherein the means for limiting the variation of electrical potential at output terminal of the (i-1)-th signalling device (CMi-1) comprise a resistor (Rb i 24) and a current source (Src i 25). • at least an (i-1)-th and an i-th signalling device (CMi-1, CMi), and • a communication link for transmitting signals from an output terminal of said (i-1)-th signalling device (CMi-1) to an input terminal of said i-th signalling device (CMi), wherein said communication link consists of an electrical conducting connection; • said (i-1)-th signalling device (CMi-1) comprises means (Qi-1 16, Rai-1 17) for varying the electrical potential at said output terminal in dependence upon the signal to be transmitted, • said i-th signalling device (CMi) comprises means for sensing via said communication link and said input terminal the variation of the electrical potential of said output terminal of the (i-1)-th signalling device (CMi-1) and for outputting a signal which varies in dependence upon the sensed variation of electrical potential, and • said i-th signalling device (CMi) further comprises means for limiting the variation of electrical potential at the output terminal of the (i-1)-th signalling device (CMi-1) to the supply voltage interval [V(Ci-1-), V(Ci-1+)] of said (i-1)-th signalling device,
A device for delivering a thermal condensation aerosol comprising (a) an airway comprising antistatic material, and (b) a substrate placed inside the airway, wherein the substrate is coated with an alprazolam composition, wherein the thermal condensation aerosol is formed by heating the substrate to form an alprazolam vapor and subsequent cooling of the vapor, such that the vapor condenses to form particles, wherein the aerosol is substantially free of organic solvents and propellants, and wherein a heat source supplies heat to the substrate at a rate that achieves a substrate temperature of at least 300 °C or 350 °C and produces substantially complete vaporization of the alprazolam composition from the substrate within a period of 2 seconds. (a) an airway comprising antistatic material, and (b) a substrate placed inside the airway, wherein the substrate is coated with an alprazolam composition, wherein the thermal condensation aerosol is formed by heating the substrate to form an alprazolam vapor and subsequent cooling of the vapor, such that the vapor condenses to form particles, wherein the aerosol is substantially free of organic solvents and propellants, and wherein a heat source supplies heat to the substrate at a rate that achieves a substrate temperature of at least 300 °C or 350 °C and produces substantially complete vaporization of the alprazolam composition from the substrate within a period of 2 seconds.
An adjustable bed system comprising: first and second adjustable foundations; at least one first motor (912, 914, 601, 611) to adjust the first adjustable foundation; at least one second motor (912, 914, 601, 611) to adjust the second adjustable foundation; a configurable device having a first state and a second state, wherein the configurable device is a memory device; a central controller in communication with the configurable device, the controller configured to receive an input representing one of the first state and the second state, the controller comprising: a processor configured to control the at least one first motor and the at least one second motor based on the received input; and a transceiver configured to a receive a signal representing a user selection of one of the first state and the second state, wherein the processor is further configured to store a logic level representing the received signal in the memory device, wherein when the configurable device is in the first state, the processor is configured to control the at least one first motor to operate in coordination with the at least one second motor. first and second adjustable foundations; at least one first motor (912, 914, 601, 611) to adjust the first adjustable foundation; at least one second motor (912, 914, 601, 611) to adjust the second adjustable foundation; a configurable device having a first state and a second state, wherein the configurable device is a memory device; a central controller in communication with the configurable device, the controller configured to receive an input representing one of the first state and the second state, the controller comprising: a processor configured to control the at least one first motor and the at least one second motor based on the received input; and a transceiver configured to a receive a signal representing a user selection of one of the first state and the second state, wherein the processor is further configured to store a logic level representing the received signal in the memory device, wherein when the configurable device is in the first state, the processor is configured to control the at least one first motor to operate in coordination with the at least one second motor.
Method for operating an internal combustion engine with - a combustion engine, - a fresh gas section, - an exhaust gas section, - an exhaust gas turbocharger with a turbine which is integrated into the exhaust gas section and with a compressor which is integrated into the fresh gas section, the turbine comprising an apparatus for variable turbine inflow which can be adjusted by means of an actuator, - a recirculation line for a low-pressure exhaust gas recirculation means which branches off from the exhaust gas section downstream of the turbine and opens into the fresh gas section upstream of the compressor, it being possible for the throughflow of the recirculation line to be influenced by means of a valve device, characterized in that the turbine is designed for a minimum flow of less than 60 kg/h in the case of a completely closed apparatus for variable turbine inflow, the minimum flow being the throughflow of the turbine by means of air starting from a turbine inlet towards the turbine outlet, which throughflow is set at 20°C at the differential pressure in the turbine inlet in comparison with the turbine outlet of 300 mbar, and in that, - as a consequence of a load increase during operation of the combustion engine, the apparatus for variable turbine inflow is completely closed and the throughflow of the recirculation line is reduced by means of the valve device, and in that, - after a setpoint boost pressure which corresponds to the requested load increase has been achieved in the fresh gas section, the throughflow of the recirculation line is increased again by means of the valve device. - a combustion engine, - a fresh gas section, - an exhaust gas section, - an exhaust gas turbocharger with a turbine which is integrated into the exhaust gas section and with a compressor which is integrated into the fresh gas section, the turbine comprising an apparatus for variable turbine inflow which can be adjusted by means of an actuator, - a recirculation line for a low-pressure exhaust gas recirculation means which branches off from the exhaust gas section downstream of the turbine and opens into the fresh gas section upstream of the compressor, it being possible for the throughflow of the recirculation line to be influenced by means of a valve device, - as a consequence of a load increase during operation of the combustion engine, the apparatus for variable turbine inflow is completely closed and the throughflow of the recirculation line is reduced by means of the valve device, and in that, - after a setpoint boost pressure which corresponds to the requested load increase has been achieved in the fresh gas section, the throughflow of the recirculation line is increased again by means of the valve device.
Method for preparing a residue of a donor substrate, a layer of the donor substrate having been removed by delamination in a plane weakened by ion implantation, the residue comprising, on a main surface, an annular step corresponding to a non-removed part of the donor substrate, the method comprising: a. depositing a smoothing oxide on the main surface of the residue to fill the internal space defined by the annular step; b. a heat treatment for densifying the smoothing oxide; the method being characterized in that the deposit of the smoothing oxide at least partially covers the annular step. a. depositing a smoothing oxide on the main surface of the residue to fill the internal space defined by the annular step; b. a heat treatment for densifying the smoothing oxide;
A photosensitizer composition, comprising: an Inula viscosa extract acting as a photosensitizer; and a pharmaceutically acceptable vehicle for enhancing spread of the composition on a nail and penetration of the composition into the nail, the pharmaceutically acceptable vehicle comprising: glycerin or propylene glycol in 1-50 v/v%; isopropanol, ethanol, or a mixture thereof in 5-90 v/v%; water in 10-90 v/v%; and an emulsifier in 0.5-5 v/v %. an Inula viscosa extract acting as a photosensitizer; and a pharmaceutically acceptable vehicle for enhancing spread of the composition on a nail and penetration of the composition into the nail, the pharmaceutically acceptable vehicle comprising: glycerin or propylene glycol in 1-50 v/v%; isopropanol, ethanol, or a mixture thereof in 5-90 v/v%; water in 10-90 v/v%; and an emulsifier in 0.5-5 v/v %. glycerin or propylene glycol in 1-50 v/v%; isopropanol, ethanol, or a mixture thereof in 5-90 v/v%; water in 10-90 v/v%; and an emulsifier in 0.5-5 v/v %.
A method of controlling position of an electronic expansion valve employed in a refrigeration system, characterized in that the method comprises: generating a first EEV position signal in a first control loop, based on superheat feedback associated with the refrigeration system and a selected EEV position signal provided as feedback; generating a second EEV position signal in a second control loop, based on evaporator pressure feedback associated with the refrigeration system and the selected EEV position signal provided as feedback; selecting either the first EEV position signal or the second EEV position signal as the position signal employed to control position of the EEV; and providing the selected position signal in feedback to both the first control loop and the second control loop. generating a first EEV position signal in a first control loop, based on superheat feedback associated with the refrigeration system and a selected EEV position signal provided as feedback; generating a second EEV position signal in a second control loop, based on evaporator pressure feedback associated with the refrigeration system and the selected EEV position signal provided as feedback; selecting either the first EEV position signal or the second EEV position signal as the position signal employed to control position of the EEV; and providing the selected position signal in feedback to both the first control loop and the second control loop.
A method for determining, for a motor vehicle of a predefined type, a calculation model of a physical quantity Q representative of a state of the vehicle in operation, and determining a comfort index within said vehicle in operation being determinable based on at least the quantity Q predicted by said calculation model, said method being performed by a processing system comprising acquisition means and a processing device, and comprising the steps of: - acquiring, by the acquisition means and on a motor test vehicle in operation corresponding to said predefined type, signals including a measurement signal of said quantity Q and other signals of physical quantities representative of a state of the vehicle in operation and distinct from Q, - obtaining, by the processing device, said acquired signals, - learning in a supervised manner, by the processing device and based on the acquired signals, the calculation model of the quantity Q, the physical quantities respectively associated with said other signals being considered as explanatory variables of said calculation model; said method being characterized in that said supervised learning step comprises: - a stationary wavelet transform (E30_1) of each of said other signals such that each of said other signals is decomposed into a plurality of frequency signals, - the performing (E30_2) of a gradient boosting regression algorithm based on said frequency signals and said measurement signal. - acquiring, by the acquisition means and on a motor test vehicle in operation corresponding to said predefined type, signals including a measurement signal of said quantity Q and other signals of physical quantities representative of a state of the vehicle in operation and distinct from Q, - obtaining, by the processing device, said acquired signals, - learning in a supervised manner, by the processing device and based on the acquired signals, the calculation model of the quantity Q, the physical quantities respectively associated with said other signals being considered as explanatory variables of said calculation model; - a stationary wavelet transform (E30_1) of each of said other signals such that each of said other signals is decomposed into a plurality of frequency signals, - the performing (E30_2) of a gradient boosting regression algorithm based on said frequency signals and said measurement signal.