mhurhangee/ep-ind-claims huggingface dataset:
A hand dryer comprising: - a casing, - a drying chamber with front and back walls, integrated in the casing for inserting hands, - means for propelling air at room temperature at a high speed, - presence and proximity detectors for the automatic actuation of the dryer when the user inserts his or her hands in the drying chamber, - an electronic control card, - means for collecting the water released from the user's hands during drying, - at least two air outlets arranged in opposite walls of the drying chamber, - two flat hollow chambers (3a, 3b) inside the casing which are parallel to the front and back walls of the drying chamber, the hollow chambers each being demarcated by respective pairs of mutually opposite front and back plates (31, 32), and arranged, respectively, between the front wall of the drying chamber and of the casing, and between the back wall of the drying chamber and of the casing; said hollow chambers (3a, 3b) comprising each a mouth for the inlet of high-speed air propelled by the air propulsion means (4a, 4b) and a plurality of air outlet orifices defined in the front plate of the respective hollow chamber, facing respective orifices (21, 22) defined in the opposite walls of the drying chamber, forming the air outlets, such that air is simultaneously projected on the entire surface of the user's hands inserted and held still inside the drying chamber characterized in that the hollow chambers each comprise inner channels for the conduction and distribution of air through the inside of said hollow chamber with a low coefficient of friction, minimizing the formation of swirls during its circulation through the inside of said hollow chambers. - a casing, - a drying chamber with front and back walls, integrated in the casing for inserting hands, - means for propelling air at room temperature at a high speed, - presence and proximity detectors for the automatic actuation of the dryer when the user inserts his or her hands in the drying chamber, - an electronic control card, - means for collecting the water released from the user's hands during drying, - at least two air outlets arranged in opposite walls of the drying chamber, - two flat hollow chambers (3a, 3b) inside the casing which are parallel to the front and back walls of the drying chamber, the hollow chambers each being demarcated by respective pairs of mutually opposite front and back plates (31, 32), and arranged, respectively, between the front wall of the drying chamber and of the casing, and between the back wall of the drying chamber and of the casing;
Arrangement of a starter on a support belonging to an internal combustion engine of a motor vehicle, the starter being able to be at least partially submerged in a liquid up to a predetermined level, wherein the starter comprises: - a drive pinion which extends axially outside a casing of the starter; - a radial fastening flange arranged at the same axial end of the casing as the drive pinion and intended to be fastened axially against a plate of the support that is equipped with an orifice for the passage of the drive pinion; - electrical connection means intended to be connected to at least one cable; - which arrangement comprises a sealed cover fastened around at least a lower part of the starter to form a sealed volume at least below the predetermined level, the cover having a passage mouth for the fastening flange; said arrangement being characterized in that it further comprises sealing means interposed between said mouth and a facing clamping face to ensure sealed fastening at least up to the predetermined level. - a drive pinion which extends axially outside a casing of the starter; - a radial fastening flange arranged at the same axial end of the casing as the drive pinion and intended to be fastened axially against a plate of the support that is equipped with an orifice for the passage of the drive pinion; - electrical connection means intended to be connected to at least one cable; - which arrangement comprises a sealed cover fastened around at least a lower part of the starter to form a sealed volume at least below the predetermined level, the cover having a passage mouth for the fastening flange;
An engine comprising an engine main body and a carburetor, the carburetor comprising an automatic choke device comprising: a wax attached to the engine main body; a rod configured to perform a linear motion in conjunction with expansion of the wax; a choke lever configured to rotate in conjunction with the linear motion of the rod; and a choke shaft arranged so as to be able to abut against the choke lever and connected to a choke valve of the carburetor, wherein the choke lever includes a flat portion and a circular arc portion that is formed in a circular arc shape so as to be continuous from the flat portion and is brought into sliding contact with the engaging portion of the choke shaft, characterized in that said flat portion engages with an engaging portion of the choke shaft, an engaging range end position of the flat portion being a sliding contact range start position of the circular arc portion, said engaging range end position of the flat portion corresponding to a fully open state of the choke valve, and said circular arc portion is arranged so that an overstroke of the wax can be absorbed without further rotating the choke shaft. a wax attached to the engine main body; a rod configured to perform a linear motion in conjunction with expansion of the wax; a choke lever configured to rotate in conjunction with the linear motion of the rod; and a choke shaft arranged so as to be able to abut against the choke lever and connected to a choke valve of the carburetor, wherein the choke lever includes a flat portion and a circular arc portion that is formed in a circular arc shape so as to be continuous from the flat portion and is brought into sliding contact with the engaging portion of the choke shaft, an engaging range end position of the flat portion being a sliding contact range start position of the circular arc portion, said engaging range end position of the flat portion corresponding to a fully open state of the choke valve, and said circular arc portion is arranged so that an overstroke of the wax can be absorbed without further rotating the choke shaft.
A method of protecting an infrared gas sensor in an environment in which gas is to be tested, the infrared gas sensor including a base, an infrared light source/sensor system positioned behind a translucent window within the base, supports 340 extending from base to connect to a mirror support to which a mirror system is attached, defining an analytical volume between translucent window and mirror system, comprising: providing a protective enclosure formed in a plurality of sections (110a, 110b), at least a first section of the plurality of sections being movable relative to a second section of the plurality of sections so that the protective enclosure can be placed around at least a portion the infrared gas sensor; placing the first section adjacent the installed gas sensor while the first section and the second section are in an open state; and moving the second section to place the first section and the second section in a closed state, said first and second sections forming an opening in the closed state, said opening having a greater radius or cross-sectional area than the maximum or average radius, or cross-sectional area of an internal volume of the protective enclosure, and said opening encompassing the at least a portion of the infrared gas sensor, wherein the second section is movable relative to the first section to enclose the at least a portion of the infrared gas sensor comprising the analytical volume of the infrared gas sensor within the internal volume of the protective enclosure. providing a protective enclosure formed in a plurality of sections (110a, 110b), at least a first section of the plurality of sections being movable relative to a second section of the plurality of sections so that the protective enclosure can be placed around at least a portion the infrared gas sensor; placing the first section adjacent the installed gas sensor while the first section and the second section are in an open state; and moving the second section to place the first section and the second section in a closed state, said first and second sections forming an opening in the closed state, said opening having a greater radius or cross-sectional area than the maximum or average radius, or cross-sectional area of an internal volume of the protective enclosure, and said opening encompassing the at least a portion of the infrared gas sensor, wherein the second section is movable relative to the first section to enclose the at least a portion of the infrared gas sensor comprising the analytical volume of the infrared gas sensor within the internal volume of the protective enclosure.
A resin composition comprising: a polyphenylene ether having a number average molecular weight of 500 to 5000, in terms of polystyrene by a GPC method; a cyclophosphazene compound represented by the following formula; a non-halogen-based epoxy resin having two or more epoxy groups in one molecule; a cyanate compound having two or more cyanato groups in the molecule; and a filler, wherein Z 1 and Z 2 each independently represent a vinyl group or a hydrogen atom, at least either one of Z 1 and Z 2 is a vinyl group, and n represents an integer of 3 to 8. a polyphenylene ether having a number average molecular weight of 500 to 5000, in terms of polystyrene by a GPC method; a cyclophosphazene compound represented by the following formula; a non-halogen-based epoxy resin having two or more epoxy groups in one molecule; a cyanate compound having two or more cyanato groups in the molecule; and a filler, wherein Z 1 and Z 2 each independently represent a vinyl group or a hydrogen atom, at least either one of Z 1 and Z 2 is a vinyl group, and n represents an integer of 3 to 8.
Method of monitoring an elementary cell of a site, by means of a monitoring device comprising an emitter and a receiver of electromagnetic waves, characterised by the following steps implemented in a treatment unit: a) emission towards the elementary cell to be monitored, by means of the emitter, of at least three electromagnetic waves (E 1, E 2, E 3) of different respective frequencies (f 1, f 2, f 3) and such that the wavelength associated with a first beat frequency defined by the difference (|f 2 -f 1 |) between a first and a second of said frequencies is greater than the radial size (r) of the elementary cell; b) coherent reception, by means of the receiver, of the reflected waves (S 1, S 2, S 3) coming from the reflection of the waves (E 1, E 2, E 3) on the monitored cell; c) treatment of the reflected waves (S 1, S 2, S 3) so as to detect the motion of an object comprising one dimension, in rotation and scattering, in the elementary cell and estimating the position thereof in the elementary cell, said treatment determining the argument of a temporal means of a correlation between two waves corresponding to the first beat frequency in order to deduce therefrom the position of the object in motion, the module of a temporal means of a correlation between two waves corresponding to a second beat frequency so as to deduce therefrom the dimension of the object in motion, said second beat frequency being defined by the difference between the third of the three frequencies and one of the other two. a) emission towards the elementary cell to be monitored, by means of the emitter, of at least three electromagnetic waves (E 1, E 2, E 3) of different respective frequencies (f 1, f 2, f 3) and such that the wavelength associated with a first beat frequency defined by the difference (|f 2 -f 1 |) between a first and a second of said frequencies is greater than the radial size (r) of the elementary cell; b) coherent reception, by means of the receiver, of the reflected waves (S 1, S 2, S 3) coming from the reflection of the waves (E 1, E 2, E 3) on the monitored cell; c) treatment of the reflected waves (S 1, S 2, S 3) so as to detect the motion of an object comprising one dimension, in rotation and scattering, in the elementary cell and estimating the position thereof in the elementary cell, said treatment determining the argument of a temporal means of a correlation between two waves corresponding to the first beat frequency in order to deduce therefrom the position of the object in motion,
A fill level sensor, a pressure sensor, a point level sensor or a temperature sensor comprising: an electronic module that comprises several electronic subassemblies; a processor that is electrically coupled to the electronic subassemblies, wherein the subassemblies respectively comprise a programmable storage device with subassembly-specific data of the respective subassembly, wherein the storage device content can be read out and evaluated by the processor, wherein the processor is configured for checking the correctness of the assembly of the subassemblies after the assembly of the subassemblies based on the data; wherein the processor is configured for checking whether the subassemblies have run through all provided tests based on the data; wherein the data comprises information about the type of functional checks performed on the subassembly, and the data can be verified with data expected by the processor in order to check the completeness of the functional tests of the subassemblies. an electronic module that comprises several electronic subassemblies; a processor that is electrically coupled to the electronic subassemblies, wherein the subassemblies respectively comprise a programmable storage device with subassembly-specific data of the respective subassembly, wherein the storage device content can be read out and evaluated by the processor, wherein the processor is configured for checking the correctness of the assembly of the subassemblies after the assembly of the subassemblies based on the data; wherein the processor is configured for checking whether the subassemblies have run through all provided tests based on the data; wherein the data comprises information about the type of functional checks performed on the subassembly, and the data can be verified with data expected by the processor in order to check the completeness of the functional tests of the subassemblies.
A composition comprising: (a) a resinous binder comprising a polyester polymer and a curing agent, which is reactive with the polyester polymer, (b) 5 to 35 percent by weight based on total solids weight of the composition of a product formed by mixing together and heating: (i) an epoxidized olefin polymer, and (ii) a polyamide, wherein the polyester polymer is used in an amount of 30 to 90 percent by weight, and the curing agent is used in an amount of 5 to 50 percent by weight, the percentages by weight being based on the weight of total solids in the coating composition. (a) a resinous binder comprising a polyester polymer and a curing agent, which is reactive with the polyester polymer, (b) 5 to 35 percent by weight based on total solids weight of the composition of a product formed by mixing together and heating: (i) an epoxidized olefin polymer, and (ii) a polyamide, wherein the polyester polymer is used in an amount of 30 to 90 percent by weight, and the curing agent is used in an amount of 5 to 50 percent by weight, the percentages by weight being based on the weight of total solids in the coating composition. (i) an epoxidized olefin polymer, and (ii) a polyamide,
Method of communication executed by a node of a telecommunication network, said node having a data transmission to be performed, said method comprising: - a step of selecting a time interval j in a contention window comprising several time intervals and preceding a transmission period, - a step of listening to the time intervals preceding the time interval j, characterized in that said transmission period exhibits several transmission channels (15, 16, 17), and in that the method comprises: - a step of counting a number of sends during said time intervals preceding the time interval j, - when the number of sends is greater than a predetermined threshold, a step of postponing or of cancelling said data transmission, - when the number of sends is less than or equal to the predetermined threshold, a step of sending (62, 63) during the time interval j and a step of determining one of said transmission channels, as a function of said number of sends. - a step of selecting a time interval j in a contention window comprising several time intervals and preceding a transmission period, - a step of listening to the time intervals preceding the time interval j, - a step of counting a number of sends during said time intervals preceding the time interval j, - when the number of sends is greater than a predetermined threshold, a step of postponing or of cancelling said data transmission, - when the number of sends is less than or equal to the predetermined threshold, a step of sending (62, 63) during the time interval j and a step of determining one of said transmission channels, as a function of said number of sends.
A method of culturing mammalian cells expressing a heterologous protein in a perfusion cell culture, comprising: culturing the mammalian cells in a culture medium comprising an effective amount of one or more lipids or lipid metabolites, wherein the one or more lipids or lipid metabolites comprises 500-2000 μM linoleic acid, 100-600 μM arachidonic acid and/or 0.0001-100 μM prostaglandin E2.
A method for transmitting uplink information, comprising: determining (S401a) whether a time domain resource of a Physical Uplink Control Channel, PUCCH, and a time domain resource of a Physical Uplink Shared Channel, PUSCH, overlap in a time domain, and responsive to that there is an overlap between the time domain resource of the PUCCH and the time domain resource of the PUSCH, determining (S402a) a transmission manner for at least one of the PUCCH or the PUSCH according to a priority parameter; wherein the priority parameter comprises: an information priority of the PUCCH; or the information priority of the PUCCH and an information priority of the PUSCH, wherein in response to that the transmission manner is to multiplex UCIs in the PUCCH into the PUSCH, a number of resource elements occupied by UCI is obtained according to a code rate compensation factor, and characterized in that the code rate compensation factor is associated with a service type of a service corresponding to the UCI, wherein code rate compensation factors corresponding to UCIs with different service types are independent; or code rate compensation factors corresponding to different types of UCIs with a same service type are shared or independent. determining (S401a) whether a time domain resource of a Physical Uplink Control Channel, PUCCH, and a time domain resource of a Physical Uplink Shared Channel, PUSCH, overlap in a time domain, and responsive to that there is an overlap between the time domain resource of the PUCCH and the time domain resource of the PUSCH, determining (S402a) a transmission manner for at least one of the PUCCH or the PUSCH according to a priority parameter; wherein the priority parameter comprises: an information priority of the PUCCH; or the information priority of the PUCCH and an information priority of the PUSCH, wherein in response to that the transmission manner is to multiplex UCIs in the PUCCH into the PUSCH, a number of resource elements occupied by UCI is obtained according to a code rate compensation factor, and characterized in that the code rate compensation factor is associated with a service type of a service corresponding to the UCI, wherein code rate compensation factors corresponding to UCIs with different service types are independent; or code rate compensation factors corresponding to different types of UCIs with a same service type are shared or independent.
A method for removing nitrogen oxides from a gas stream, comprising: Introducing a to-be treated gas stream into a gas-solid reaction column and introducing ferric chloride particles into the gas-solid reaction column; wherein the reaction temperature in said gas-solid reaction column is in the range of 35°C to 95°C; and forming solid products by using said ferric chloride particles to adsorb nitrogen oxides, thereby purifying the gas stream. Introducing a to-be treated gas stream into a gas-solid reaction column and introducing ferric chloride particles into the gas-solid reaction column; wherein the reaction temperature in said gas-solid reaction column is in the range of 35°C to 95°C; and forming solid products by using said ferric chloride particles to adsorb nitrogen oxides, thereby purifying the gas stream.
A blood purification apparatus that includes a blood circuit including an arterial blood circuit and a venous blood circuit to distal ends of which puncture needles are connectable, respectively, and through which blood of a patient can be extracorporeally circulated; a blood purification device connected to proximal ends of the arterial blood circuit and the venous blood circuit and that is configured to purify the blood extracorporeally circulating through the blood circuit; a squeezable tube connected to the arterial blood circuit; a blood pump (3, 3') allowing liquid in the squeezable tube to flow by squeezing the squeezable tube in a lengthwise direction while compressing the squeezable tube in a radial direction; and a pressure-detecting device attached to a predetermined position of the arterial blood circuit that is on a distal side with respect to a position where the blood pump (3, 3') is provided, the pressure-detecting device being capable of detecting a suction pressure of the blood pump (3, 3'), the blood purification apparatus comprising: a control device (12, 12') configured to control a driving speed of the blood pump (3, 3') in accordance with the suction pressure of the blood pump (3, 3') that is detected by the pressure-detecting device, characterized in that the blood purification apparatus further comprising a substitution line (L8, L9) connected to a position of the arterial blood circuit that is on the distal side with respect to the position where the blood pump (3, 3') is provided, the substitution line (L8, L9) allowing a predetermined substitution fluid to be supplied to the arterial blood circuit, wherein the control device (12, 12') is configured to control a flow rate of the substitution fluid supplied from the substitution line (L8, L9) such that the suction pressure of the blood pump (3, 3') becomes a predetermined value. a control device (12, 12') configured to control a driving speed of the blood pump (3, 3') in accordance with the suction pressure of the blood pump (3, 3') that is detected by the pressure-detecting device, characterized in that the blood purification apparatus further comprising a substitution line (L8, L9) connected to a position of the arterial blood circuit that is on the distal side with respect to the position where the blood pump (3, 3') is provided, the substitution line (L8, L9) allowing a predetermined substitution fluid to be supplied to the arterial blood circuit, wherein the control device (12, 12') is configured to control a flow rate of the substitution fluid supplied from the substitution line (L8, L9) such that the suction pressure of the blood pump (3, 3') becomes a predetermined value.