mhurhangee/ep-ind-claims huggingface dataset:
A contamination identification system for a healthcare setting, comprising: a contamination detection device including: a body; a first light source coupled to the body; and a controller operably coupled to the first light source, wherein the controller activates the first light source to emit ultraviolet light to illuminate contamination within said healthcare setting; a second light source communicatively coupled with the controller, wherein the controller activates the second light source to emit visible light to illuminate said healthcare setting; and healthcare equipment including a patient support apparatus disposed within said healthcare setting, wherein the second light source is directly coupled to the patient support apparatus, and wherein the contamination detection device is freely movable relative to the healthcare equipment to illuminate the contamination on the healthcare equipment. a contamination detection device including: a body; a first light source coupled to the body; and a controller operably coupled to the first light source, wherein the controller activates the first light source to emit ultraviolet light to illuminate contamination within said healthcare setting; a body; a first light source coupled to the body; and a controller operably coupled to the first light source, wherein the controller activates the first light source to emit ultraviolet light to illuminate contamination within said healthcare setting; a second light source communicatively coupled with the controller, wherein the controller activates the second light source to emit visible light to illuminate said healthcare setting; and healthcare equipment including a patient support apparatus disposed within said healthcare setting, wherein the second light source is directly coupled to the patient support apparatus, and wherein the contamination detection device is freely movable relative to the healthcare equipment to illuminate the contamination on the healthcare equipment.
An inspection system to measure the condition of at least the wall of a ground opening, such as a borehole opening, an excavation, and a slurry wall, the inspection system comprising a head unit configured to be lowered into an associated borehole and having a lowering mount configured to be operably and selectively joined to an associated lowering device to facilitate the lowering of the head unit into the associated borehole during a data collection phase, the data collection phase including at least one of a lowering phase wherein the head unit is lowered in the associated borehole toward an associated bottom extent of the borehole by the associated lowering device and a raising phase wherein the head unit is raised in the associated borehole away from the associated bottom extent, at least one set of test data being collected concerning one or more physical characteristics of the associated borehole during the data collection phase, the head unit comprising an internal measurement system and a sensor arrangement, the sensor arrangement including a plurality of sensors facing radially outwardly of a head axis that is generally parallel to at least a portion of an associated borehole axis, the plurality of sensors of the sensor arrangement allowing the head unit to be moved during the data collection phase without rotation about the head axis, the plurality of sensors at least partially producing the at least one set of test data collected during the data collection phase, characterized in that the head unit includes at least one calibration sensor arrangement configured to at least one of measure a sensor arrangement depth within the associated borehole, confirm the head depth, and measure a sensor wave speed of the plurality of sensors.
An oil drainback assembly for a bearing compartment of a gas turbine engine comprising: a shaft with a threaded section along an axis, and an oil distribution passage transverse to the axis; a head transverse to the threaded section, and a drain passage that extends through the head and into communication with the oil distribution passage; a windage blocker that extends from the head; characterised by a nut receivable onto the threaded section; and a directional fitting receivable onto the shaft and retained by the nut. a shaft with a threaded section along an axis, and an oil distribution passage transverse to the axis; a head transverse to the threaded section, and a drain passage that extends through the head and into communication with the oil distribution passage; a windage blocker that extends from the head; characterised by a nut receivable onto the threaded section; and a directional fitting receivable onto the shaft and retained by the nut.
A wall-mounted air conditioner indoor unit, comprising: a chassis, having an upper and a lower end in a width thereof, the chassis being provided with two baffle plates extending vertically and facing each other, each of the two baffle plates having an inner surface provided with a first sliding groove, the first sliding groove having a groove bottom facing the other baffle plate, and the groove bottom being partially recessed to define a second sliding groove; a heat exchanger, mounted on the chassis, wherein the chassis, the two baffle plates, and the heat exchanger collectively enclose an air duct cavity with a downward opening; and an air outlet frame, used for mounting a cross flow fan, wherein a first sliding block and a second sliding block are arranged on each of opposite ends of the air outlet frame that lie in a length of the chassis, the air outlet frame being detachably mounted onto each of the two baffle plates within the air duct cavity by the fitting of the first sliding groove and the first sliding block and the fitting of the second sliding groove and the second sliding block. a chassis, having an upper and a lower end in a width thereof, the chassis being provided with two baffle plates extending vertically and facing each other, each of the two baffle plates having an inner surface provided with a first sliding groove, the first sliding groove having a groove bottom facing the other baffle plate, and the groove bottom being partially recessed to define a second sliding groove; a heat exchanger, mounted on the chassis, wherein the chassis, the two baffle plates, and the heat exchanger collectively enclose an air duct cavity with a downward opening; and an air outlet frame, used for mounting a cross flow fan, wherein a first sliding block and a second sliding block are arranged on each of opposite ends of the air outlet frame that lie in a length of the chassis, the air outlet frame being detachably mounted onto each of the two baffle plates within the air duct cavity by the fitting of the first sliding groove and the first sliding block and the fitting of the second sliding groove and the second sliding block.
A system comprising: - electronic circuitry; and - a power supply for powering the electronic circuitry; wherein the power supply comprises: a primary cell; and an energy scavenger operative to scavenge ambient energy and convert the scavenged ambient energy into electric energy; wherein the system is configured for having the primary cell power the electronic circuitry when the energy scavenger is inactive; and wherein the system is configured for having the energy scavenger power the electronic circuitry via the primary cell when the energy scavenger is active, characterised by, using a capacitance of the primary cell as a buffer for the electric energy. - electronic circuitry; and - a power supply for powering the electronic circuitry; a primary cell; and an energy scavenger operative to scavenge ambient energy and convert the scavenged ambient energy into electric energy;
Bypass device of an exhaust system of a turbocharged internal combustion engine which bypass device comprises - a housing with a first exhaust inlet and a first exhaust outlet and a second exhaust inlet and a second exhaust outlet, characterized in that the bypass device further comprises - a cylindrical rotatable part formed with a first exhaust flow channel, a second exhaust flow channel and a bypass exhaust channel, wherein the first and second exhaust flow channels (14, 15) are formed in the cylindrical rotatable part to provide flow connection between the first exhaust inlet and a first exhaust outlet and between the second exhaust inlet and the second exhaust outlet by rotating the cylindrical rotatable part into a first position, and the bypass exhaust channel is formed in the cylindrical rotatable part as U-shaped to provide flow connection between the first exhaust inlet and the second exhaust outlet. - a housing with a first exhaust inlet and a first exhaust outlet and a second exhaust inlet and a second exhaust outlet, characterized in that the bypass device further comprises - a cylindrical rotatable part formed with a first exhaust flow channel, a second exhaust flow channel and a bypass exhaust channel, wherein the first and second exhaust flow channels (14, 15) are formed in the cylindrical rotatable part to provide flow connection between the first exhaust inlet and a first exhaust outlet and between the second exhaust inlet and the second exhaust outlet by rotating the cylindrical rotatable part into a first position, and the bypass exhaust channel is formed in the cylindrical rotatable part as U-shaped to provide flow connection between the first exhaust inlet and the second exhaust outlet. - a cylindrical rotatable part formed with a first exhaust flow channel, a second exhaust flow channel and a bypass exhaust channel, wherein the first and second exhaust flow channels (14, 15) are formed in the cylindrical rotatable part to provide flow connection between the first exhaust inlet and a first exhaust outlet and between the second exhaust inlet and the second exhaust outlet by rotating the cylindrical rotatable part into a first position, and the bypass exhaust channel is formed in the cylindrical rotatable part as U-shaped to provide flow connection between the first exhaust inlet and the second exhaust outlet.
Inhibitor of ATP-dependent reverse transporters of cells, belonging to the group of chiral conjugates of oligoetherpolyol nature, which is a mixture of polyoxypropylenehexol of formula 4 where n = 2-6, and polyoxypropylene glycol formula 5 where m = 5-9, wherein the inhibitor has a hydroxyl number of 215-240 mg KOH / g, compound 4 has a molecular mass of 1000-1500 Da, compound 5 has a molecular mass from 300 to 500 Da, and the molar ratio of compounds 4 and 5 is 0.9-1, wherein the parameters have been measured by the relevant method as indicated in the description.
A material supply system, comprising: a material tank; a spray device; a material sensor system coupled to the material tank, wherein the material sensor system comprises: a float system coupled to an inner surface of the material tank, wherein the float system comprises a float configured to float within a float cavity; and a switch configured to send one or more signals indicative of an out-of-material condition to a control system when the float engages the switch, and characterised in that the material supply system also comprises a material mixer fluidly coupled between the material tank and the spray device, wherein the material tank is configured to receive a material and to output a flow of the material toward the spray device via the material mixer; and in that the switch is coupled to an outer surface of the material tank, wherein the switch is communicatively coupled to the float system through a wall of the material tank. a material tank; a spray device; a material sensor system coupled to the material tank, wherein the material sensor system comprises: a float system coupled to an inner surface of the material tank, wherein the float system comprises a float configured to float within a float cavity; and a switch configured to send one or more signals indicative of an out-of-material condition to a control system when the float engages the switch, and characterised in that the material supply system also comprises a material mixer fluidly coupled between the material tank and the spray device, wherein the material tank is configured to receive a material and to output a flow of the material toward the spray device via the material mixer; and in that the switch is coupled to an outer surface of the material tank, wherein the switch is communicatively coupled to the float system through a wall of the material tank. a float system coupled to an inner surface of the material tank, wherein the float system comprises a float configured to float within a float cavity; and a switch configured to send one or more signals indicative of an out-of-material condition to a control system when the float engages the switch, and characterised in that the material supply system also comprises a material mixer fluidly coupled between the material tank and the spray device, wherein the material tank is configured to receive a material and to output a flow of the material toward the spray device via the material mixer; and in that the switch is coupled to an outer surface of the material tank, wherein the switch is communicatively coupled to the float system through a wall of the material tank.
Method for operating a drive device with a drive unit and an exhaust purification device, wherein the exhaust purification device has a catalytic converter through which an exhaust gas stream of the drive unit can flow, as well as a first lambda sensor arranged in the exhaust gas stream upstream of the catalytic converter and a second lambda sensor arranged in the exhaust gas stream downstream of the catalytic converter, wherein - an oxygen filling value of an oxygen storage device of the catalytic converter is determined on the basis of a first lambda signal provided by the first lambda sensor as well as an offset value, wherein - when the second lambda signal provided by the second lambda sensor falls below a lower lambda signal limit and/or when a lambda signal upper limit is exceeded by the second lambda signal, a calibration step is initiated for calibrating the first lambda sensor, wherein - during the calibration step, the oxygen filling value is set when the value falls below the lower limit to a first value corresponding to an empty oxygen storage device, and/or when the value is exceeded it is set to a second value corresponding to a full oxygen storage device and the oxygen filling value is adjusted to a preset filling value and the offset value is adapted on the basis of the second lambda signal, characterised in that - after the calibration step a lambda signal progress of the second lambda signal is monitored and when an extreme value is determined in the lambda signal progress, the calibration step is repeated. - an oxygen filling value of an oxygen storage device of the catalytic converter is determined on the basis of a first lambda signal provided by the first lambda sensor as well as an offset value, wherein - when the second lambda signal provided by the second lambda sensor falls below a lower lambda signal limit and/or when a lambda signal upper limit is exceeded by the second lambda signal, a calibration step is initiated for calibrating the first lambda sensor, wherein - during the calibration step, the oxygen filling value is set when the value falls below the lower limit to a first value corresponding to an empty oxygen storage device, and/or when the value is exceeded it is set to a second value corresponding to a full oxygen storage device and the oxygen filling value is adjusted to a preset filling value and the offset value is adapted on the basis of the second lambda signal, - after the calibration step a lambda signal progress of the second lambda signal is monitored and when an extreme value is determined in the lambda signal progress, the calibration step is repeated.
A polymer inactivation method for a polycrystalline silicon manufacturing device, comprising: supplying humidified gas into a reacting furnace for manufacturing polycrystalline silicon through an opening provided in a wall of a bell jar of the reaction furnace to hydrolyze polymers adhered to an inner surface of the reacting furnace; and supplying the humidified gas into an exhaust gas pipe connected to the reacting furnace to hydrolyze polymers adhered to an inner surface of the exhaust gas pipe. supplying humidified gas into a reacting furnace for manufacturing polycrystalline silicon through an opening provided in a wall of a bell jar of the reaction furnace to hydrolyze polymers adhered to an inner surface of the reacting furnace; and supplying the humidified gas into an exhaust gas pipe connected to the reacting furnace to hydrolyze polymers adhered to an inner surface of the exhaust gas pipe.
External part for a timepiece or piece of jewellery, this external part being made by means of a polymer matrix in which piezochromic molecules (1, 4) are dispersed which change from a first stable state to a second stable state while changing colour under the effect of applied pressure.
Endoscope having a viewing direction (21, 22) which can be pivoted relative to the endoscope, comprising: an illumination beam path configured for transmitting illumination light; a multiplicity of reflective surfaces (51, 52, 53, 54, 55, 56) configured for reflecting the illumination light, the reflective surfaces (51, 52, 53, 54, 55, 56) being arranged at least partially next to one another in the illumination beam path relative to the intended light propagation direction (71, 72, 73) of illumination light in the illumination beam path, characterized in that reflective surfaces (51, 52, 53, 54, 55, 56) are arranged in the shape of a fan, furthermore characterized by a light distribution device which comprises a multiplicity of adjacent transparent bodies (41, 42, 43, 44, 45), the reflective surfaces (51, 52, 53, 54, 55, 56) being present at interfaces respectively between two of the adjacent transparent bodies (41, 42, 43, 44, 45). an illumination beam path configured for transmitting illumination light; a multiplicity of reflective surfaces (51, 52, 53, 54, 55, 56) configured for reflecting the illumination light, the reflective surfaces (51, 52, 53, 54, 55, 56) being arranged at least partially next to one another in the illumination beam path relative to the intended light propagation direction (71, 72, 73) of illumination light in the illumination beam path, characterized in that reflective surfaces (51, 52, 53, 54, 55, 56) are arranged in the shape of a fan, furthermore characterized by a light distribution device which comprises a multiplicity of adjacent transparent bodies (41, 42, 43, 44, 45), the reflective surfaces (51, 52, 53, 54, 55, 56) being present at interfaces respectively between two of the adjacent transparent bodies (41, 42, 43, 44, 45).
Percussion unit, in particular for a hammer drill and/or percussion hammer (12a; 12c), with a control unit (14a; 14c) which is provided for performing open-loop and/or closed-loop control of a pneumatic percussion mechanism (16a; 16c), and at least one operating condition sensor unit which is provided for sensing ambient air pressure, wherein the control unit (14a; 14c) is provided for determining at least one percussion mechanism parameter in accordance with measured values of the operating condition sensor unit, characterized in that the percussion mechanism parameter is a limiting value of an operating parameter, wherein the operating parameter is an impact frequency and/or a percussion unit rotational speed and/or a throttle characteristic variable of a venting unit.
A beverage device for making a beverage, particularly a coffee-based beverage, comprising: an electronic control unit; a portable cooking pot having a bottom and an open top for receiving a mixture that is added to the cooking pot to make the beverage, in which a cooking process is performed; a heating means for heating the cooking pot during the cooking process; and an infrared temperature sensor for contactless sensing the temperature in the cooking pot; characterized in that said infrared temperature sensor is configured to detect the temperature of an upper surface of the mixture during the cooking process and said infrared temperature sensor is disposed in proximity to the cooking pot at a distance such as to allow the measurement of the temperature of the upper surface of the mixture contactless wherein said electronic control unit reduces or cuts off power transferred to said heating means when a predefined temperature value is reached based on the temperature value obtained from the infrared temperature sensor. an electronic control unit; a portable cooking pot having a bottom and an open top for receiving a mixture that is added to the cooking pot to make the beverage, in which a cooking process is performed; a heating means for heating the cooking pot during the cooking process; and an infrared temperature sensor for contactless sensing the temperature in the cooking pot; characterized in that said infrared temperature sensor is configured to detect the temperature of an upper surface of the mixture during the cooking process and said infrared temperature sensor is disposed in proximity to the cooking pot at a distance such as to allow the measurement of the temperature of the upper surface of the mixture contactless wherein said electronic control unit reduces or cuts off power transferred to said heating means when a predefined temperature value is reached based on the temperature value obtained from the infrared temperature sensor.
A hollow tubular capacitor (1, 1 A, 1 B, 1C, 1 E, 1 F, 1 G) connected in parallel with an inverter circuit portion (6, 6E), including one side electrode connecting portion (2, 2B, 2E, 2F) having an inner peripheral tubular portion (21, 21 B, 21 F, 21 R) and one side surface portion (22, 22B) extending from one end portion of the inner peripheral tubular portion (21, 21 B, 21 F, 21 R) toward an outer peripheral side; the other side electrode connecting portion (3, 3B, 3E, 3F, 3G) having an outer peripheral tubular portion (31, 31 B, 31 R) arranged coaxially with the inner peripheral tubular portion (21, 21 B, 21 F, 21 R) on a central axis line and the other side surface portion (32, 32B, 32F, 32G) extending from the other end portion of the outer peripheral tubular portion (31, 31 B, 31 R) toward an inner peripheral side; and an electrostatic capacitance portion (4, 4A) having one side electrode plate (41, 41 B) connected to the one side electrode connecting portion (2, 2B, 2E, 2F), the other side electrode plate (42, 42B) arranged oppositely to the one side electrode plate (41, 41 B) and connected to the other side electrode connecting portion (3, 3B, 3E, 3F, 3G) and a dielectric body (43, 43B) disposed between the one side electrode plate and the other side electrode plate, wherein the electrostatic capacitance portion (4, 4A) is accommodated in a high density in an annular space (S, SB) formed by the inner peripheral tubular portion (21, 21 B, 21 F, 21 R), the one side surface portion (22, 22B), the outer peripheral tubular portion (31, 31 B, 31 R) and the other side surface portion (32, 32B, 32F, 32G).