mhurhangee/ep-ind-claims huggingface dataset:
A gas phase polymerisation process for the production of ethylene polymers in the presence of a catalyst composition based on a chromium compound, a titanium compound and a silica support material characterized in that the silica support material has a surface area ≥ 685 m 2 /g and ≤ 800 m 2 /g, a pore volume ≥ 1.65 and ≤ 1.85 cm 3 /g and an average particle size in the range ≥ 25 and ≤ 35 micrometres, wherein the catalyst composition does not comprise a magnesium compound.
A microfluidic flow rate control device for controlling a flow rate of a fluid flowing through a microfluidic conduit, the control device comprises: an inlet terminal for fluid input and an outlet terminal for fluid output; the microfluidic conduit that fluidly connects the inlet terminal with the outlet terminal; at least one pump arranged in the microfluidic conduit for pumping the fluid through the microfluidic conduit at a flow rate; at least one valve arranged in the microfluidic conduit, the valve being configured to adjust the flow rate of the fluid by modifying its passageway; a flow sensor arranged in the microfluidic conduit, the flow sensor being configured to measure the flow rate within the microfluidic conduit; and wherein the microfluidic flow rate control device comprises a controller that is configured to receive the flow rate measured by the flow sensor, compare the measured flow rate with a predefined flow rate and instruct at least one of the at least one pump and the at least one valve to modify a pumping power of the pump and the passageway of the valve, respectively, based on the result of the comparison so as to minimize the difference between the flow rate measured and the predefined flow rate. an inlet terminal for fluid input and an outlet terminal for fluid output; the microfluidic conduit that fluidly connects the inlet terminal with the outlet terminal; at least one pump arranged in the microfluidic conduit for pumping the fluid through the microfluidic conduit at a flow rate; at least one valve arranged in the microfluidic conduit, the valve being configured to adjust the flow rate of the fluid by modifying its passageway; a flow sensor arranged in the microfluidic conduit, the flow sensor being configured to measure the flow rate within the microfluidic conduit; and wherein the microfluidic flow rate control device comprises a controller that is configured to receive the flow rate measured by the flow sensor, compare the measured flow rate with a predefined flow rate and instruct at least one of the at least one pump and the at least one valve to modify a pumping power of the pump and the passageway of the valve, respectively, based on the result of the comparison so as to minimize the difference between the flow rate measured and the predefined flow rate.
Metal-ion accumulator comprising a stack of elementary electrochemical cells, each comprising a cathode, an anode and an electrolyte-impregnated separator that is intercalated between the anode and the cathode, each anode and cathode consisting of a substrate (2S, 3S) that is formed of a metal foil comprising a central portion (22, 32) bearing, on at least one of its main faces, a layer of active metal-ion insertion material, the thickness and the grammage of the layers of active material of the electrodes of the same polarity (anode or cathode) having at least two different values within the stack, the lowest thickness and grammage being that of the electrodes at the centre of the stack.
A bicycle frame bag having an outer contour substantially corresponding to that of a triangle formed by the upper tube, saddle tube and lower tube of a classic diamond bicycle frame, the bag comprising at least a stiff bag body which is form-stable or which is applied with a form-providing element, a bag base and a balancing device, characterized in that the balancing device is formed by a means for volume variation and that the bag base removable from the bell-like bag body with an upwardly extended bag base edge is adapted to be introduced into or mounted at the bag body more or less deeply.
A lighting device comprising: a heat sink comprising a flat surface and a guide which is extended from an outer circumference of the flat surface and comprises a projection; a light emitting module disposed on the flat surface; and a cover coupled to the guide of the heat sink and comprising a hole corresponding to the projection, wherein the cover is limited to rotate by the coupling of the projection of the guide and the hole of the cover, and wherein the heat sink and the cover are limited to separate from each other by the coupling of the projection of the guide and the hole of the cover. a heat sink comprising a flat surface and a guide which is extended from an outer circumference of the flat surface and comprises a projection; a light emitting module disposed on the flat surface; and a cover coupled to the guide of the heat sink and comprising a hole corresponding to the projection, wherein the cover is limited to rotate by the coupling of the projection of the guide and the hole of the cover, and wherein the heat sink and the cover are limited to separate from each other by the coupling of the projection of the guide and the hole of the cover.
A method for sidelink, SL, configured grant, CG, resource determination, comprising: determining, by a terminal device, a time-domain resource for a first SL CG according to at least one of: a number of slots corresponding to a period of the first SL CG in a resource pool associated with the first SL CG and an offset in time domain of a target SL transmission resource in the first SL CG relative to a first SL transmission resource, wherein the number of slots corresponding to the period of the first SL CG in the resource pool associated with the first SL CG is determined according to at least one of: a total length of a bitmap for configuring resource-pool time-domain resources, a number of bits with a first value in the bitmap for configuring resource-pool time-domain resources, and the period of the first SL CG configured by a network device.
Panel, particularly a panel used for making furnishings such as doors, boards, tables, furniture or the like, which panel on at least one face thereof has at least a three-dimensional structure and which panel is composed of a mechanically rigid base or supporting sheet and an embossed coating sheet for giving the aesthetic appearance to said panel, said coating sheet being superposed on at least one face of the base sheet, wherein the compound of said coating sheet is composed of thermoplastic polymers which polymers are preferably polyolefin polymers and particularly polypropylene or polyethylene or a mixture of said two polymers, being said thermoplastic polymers mixed with a vegetable and/or mineral filler, characterized in that said compound of the coating sheet comprises thermoplastic rubber or thermoplastic elastomers TPEs which compound gives such flexibility properties to the coating sheet that said coating sheet can be wound on itself.
A terminal (MTC UE) configured to employ coverage enhancement, the terminal (MTC UE) comprising: a transmitting section configured to transmit a random access preamble; a receiving section configured to receive a random access response; and a control section configured to control to transmit the random access preamble by using a random access preamble resource that is different from a random access preamble resource used by a terminal (LEGACY UE) not employing coverage enhancement wherein the receiving section is configured to receive the random access response at a timing predetermined for the coverage enhancement and the timing predetermined is within a window based on the coverage enhancement. a transmitting section configured to transmit a random access preamble; a receiving section configured to receive a random access response; and a control section configured to control to transmit the random access preamble by using a random access preamble resource that is different from a random access preamble resource used by a terminal (LEGACY UE) not employing coverage enhancement wherein the receiving section is configured to receive the random access response at a timing predetermined for the coverage enhancement and the timing predetermined is within a window based on the coverage enhancement.
Liquid tank for a liquid system of a vehicle, comprising a tank housing for the storage of a liquid of the liquid system, wherein the tank housing is designed to be multi-shelled and features at least two tank housing shells (8, 10, 12) connected to each other and at least one flow channel (14, 20, 22, 24, 26) of the liquid system integrated in the tank housing, wherein at least one of the at least one flow channel integrated in the tank housing is formed by means of two interconnected tank housing shells (10, 12) of the at least two tank housing shells (8, 10, 12) and a first valve designed as a check valve is arranged in at least one of the at least one integrated flow channel, characterized in that the tank housing is designed at the same time as a valve housing for at last one second valve of the liquid system for controlling at least one liquid flow of the liquid in the liquid system.
A control apparatus for a gas sensor which includes a heater and a cell composed of an oxygen-ion-conductive solid electrolyte body and a pair of electrodes provided thereon and which generates a sensor output corresponding to concentration of a specific gas, the control apparatus comprising: voltage application means for applying a single pulse voltage to the cell over a constant energization time; first-output-value obtaining means for obtaining a first output value from the cell when a first time (t 1) has elapsed after the start of application of the single pulse voltage; second-output-value obtaining means for obtaining a second output value from the cell when a second time (t 2) has elapsed after the start of application of the single pulse voltage; and deterioration-degree detection means for detecting the degree of deterioration of the cell on the basis of a difference (ΔVri) between the second output value and the first output value (Vril), whereby the first time (t 1) and the second time (t 2) are shorter than the constant energization time, the second time (t 2) is longer than the first time; and whereby the control apparatus further comprises heater control means (60, 70) for calculating the impedance of the cell that corresponds to the first-output-value obtained by the first-output-value obtaining means, and controlling the amount of electric current supplied to the heater such that the cell assumes a target impedance, and wherein the control apparatus further includes changing means for changing the target impedance on the basis of the degree of deterioration detected by the deterioration-degree detection means. voltage application means for applying a single pulse voltage to the cell over a constant energization time; first-output-value obtaining means for obtaining a first output value from the cell when a first time (t 1) has elapsed after the start of application of the single pulse voltage; second-output-value obtaining means for obtaining a second output value from the cell when a second time (t 2) has elapsed after the start of application of the single pulse voltage; and deterioration-degree detection means for detecting the degree of deterioration of the cell on the basis of a difference (ΔVri) between the second output value and the first output value (Vril), whereby the first time (t 1) and the second time (t 2) are shorter than the constant energization time, the second time (t 2) is longer than the first time; and whereby the control apparatus further comprises heater control means (60, 70) for calculating the impedance of the cell that corresponds to the first-output-value obtained by the first-output-value obtaining means, and controlling the amount of electric current supplied to the heater such that the cell assumes a target impedance, and wherein the control apparatus further includes changing means for changing the target impedance on the basis of the degree of deterioration detected by the deterioration-degree detection means.
A work robot comprising: a multi-joint type robot arm; an actuator configured to drive each joint of the robot arm; a storage device configured to store correction parameters for correction accuracy required for each of multiple work regions segmented as regions in which work on a work target object is performed in a movable region of the robot arm; and a control device configured to control the actuator when the work is instructed with designation of a target position, by acquiring, from the storage device, a correction parameter corresponding to a work region, to which the designated target position belongs, among the multiple work regions, and by correcting the target position using the acquired correction parameter, wherein the storage device is configured to store correction parameters of the number of data required for each of the multiple work regions, characterized in that the storage device is configured to store, as the correction parameter, a correction parameter in which a spatial coordinate value and a correction value are associated with the multiple work points arranged in a matrix at a pitch that is different for the multiple work regions, and the control device is configured to perform matrix correction to correct the target position using a correction parameter corresponding to a work region to which the target position belongs, when the work is instructed with the designation of the target position. a multi-joint type robot arm; an actuator configured to drive each joint of the robot arm; a storage device configured to store correction parameters for correction accuracy required for each of multiple work regions segmented as regions in which work on a work target object is performed in a movable region of the robot arm; and a control device configured to control the actuator when the work is instructed with designation of a target position, by acquiring, from the storage device, a correction parameter corresponding to a work region, to which the designated target position belongs, among the multiple work regions, and by correcting the target position using the acquired correction parameter, wherein the storage device is configured to store correction parameters of the number of data required for each of the multiple work regions, characterized in that the storage device is configured to store, as the correction parameter, a correction parameter in which a spatial coordinate value and a correction value are associated with the multiple work points arranged in a matrix at a pitch that is different for the multiple work regions, and the control device is configured to perform matrix correction to correct the target position using a correction parameter corresponding to a work region to which the target position belongs, when the work is instructed with the designation of the target position.
Use of at least one of soybean oil methyl ester feed and palm oil methyl ester feed for reducing the uptake of zinc and copper metals in a renewable component of a distillate boiling range fuel composition comprising: providing the renewable component comprising blending a tallow C1-C4 alkyl ester feed and from 5 to 65 vol% of soybean oil methyl ester feed and/or from 5 to 65 vol% of palm oil methyl ester feed, such that the tallow C1-C4 alkyl ester feed comprises from 35 vol% to 90 vol% of the renewable component.
An aerosol delivery device comprising: a container defining a reservoir for storing a liquid aerosol precursor; a vaporisation chamber for vaporising the liquid aerosol precursor; a vapour outlet extending from the vaporising chamber to a vapour flow passage, the vapour flow passage being in fluid communication with a mouthpiece aperture; and an absorbent member for absorbing condensed vapour within the vapour flow passage, wherein there is a deflection in a vapour airflow path between the vapour outlet and the vapour flow passage and wherein the absorbent member is provided proximal the deflection in the vapour airflow path, characterised in that the vapour flow passage comprises a transverse portion proximal the vapour outlet such that the deflection is provided between the vapour outlet and the transverse portion of the vapour flow passage; and the absorbent member extends in parallel alignment within the transverse portion of the vapour flow passage. a container defining a reservoir for storing a liquid aerosol precursor; a vaporisation chamber for vaporising the liquid aerosol precursor; a vapour outlet extending from the vaporising chamber to a vapour flow passage, the vapour flow passage being in fluid communication with a mouthpiece aperture; and an absorbent member for absorbing condensed vapour within the vapour flow passage, wherein there is a deflection in a vapour airflow path between the vapour outlet and the vapour flow passage and wherein the absorbent member is provided proximal the deflection in the vapour airflow path, characterised in that the vapour flow passage comprises a transverse portion proximal the vapour outlet such that the deflection is provided between the vapour outlet and the transverse portion of the vapour flow passage; and the absorbent member extends in parallel alignment within the transverse portion of the vapour flow passage.
A rock drill insert made of cemented carbide that comprises hard constituents of tungsten carbide in a binder phase comprising Co, wherein the cemented carbide comprises 4-18 mass% Co, and balance WC and unavoidable impurities, wherein said cemented carbide also comprises Cr in such an amount that the mass ratio Cr/Co is 0.04-0.19 in the bulk, wherein there is no substantial gradient of Co content present when going from the surface of the rock drill insert to its interior; characterized in that: the difference between the hardness at any point of the surface of the rock drill insert and the hardness of the bulk is at least 40 HV3 wherein hardness is measured according to the method mentioned in the description and wherein the sintered cemented carbide is free from undissolved chromium carbide. said cemented carbide also comprises Cr in such an amount that the mass ratio Cr/Co is 0.04-0.19 in the bulk, wherein there is no substantial gradient of Co content present when going from the surface of the rock drill insert to its interior; characterized in that: the difference between the hardness at any point of the surface of the rock drill insert and the hardness of the bulk is at least 40 HV3 wherein hardness is measured according to the method mentioned in the description and wherein the sintered cemented carbide is free from undissolved chromium carbide.
MEMS printed circuit board unit for a sound transducer assembly for generating and/or detecting sound waves in the audible wavelength spectrum, with a printed circuit board and a multi-layer piezoelectric structure, by means of which a membrane provided for this purpose can be set into oscillation and/or oscillations of the membrane can be detected, wherein the printed circuit board is designed to be flexible and that the multi-layer piezoelectric structure is embedded in the printed circuit board, characterized in that that the printed circuit board has at least one continuous recess (7, 33, 34, 35), by means of which the multi-layer piezoelectric structure is at least partially cut free in its edge region. a printed circuit board and a multi-layer piezoelectric structure, by means of which a membrane provided for this purpose can be set into oscillation and/or oscillations of the membrane can be detected, wherein the printed circuit board is designed to be flexible and that the multi-layer piezoelectric structure is embedded in the printed circuit board, characterized in that that the printed circuit board has at least one continuous recess (7, 33, 34, 35), by means of which the multi-layer piezoelectric structure is at least partially cut free in its edge region.
A damping device for damping starting and stopping impacts of a motor vehicle engine, having a first and second chamber (14, 17) filled with a damping medium and separated by an intermediate plate, wherein the chambers (14, 17) are each bounded by bellows (12, 15) and by a face plate (13, 16), wherein a damping channel connecting the chambers (14, 17) is formed in the intermediate plate, wherein the two chambers (14, 17) are connected by at least any bypass channel and wherein the bypass channel can be opened or closed by means of a switchable valve (22, 51, 54) characterised in that the bypass channel connects the two chambers (14, 17) to the surroundings, in that the switched state of the valve (22, 51, 54) depends on the operating mode of the motor vehicle engine, and in that the bypass channel is closed during the starting and stopping process of the motor vehicle engine and is opened in the driving mode.
A reflowable thermal fuse comprising: a positive-temperature-coefficient, PTC, device that defines a first end and a second end; a conduction element that defines a first end and a second end, the first end of the conduction element electrically connected to the second end of the PTC device; and a restraining element that defines a first end and a second end, the first end of the restraining element electrically connected to the first end of the PTC device and the second end of the restraining element electrically connected to the second end of the conduction element, characterized in that the restraining element is adapted to prevent the conduction element from coming out of electrical connection with the PTC device during installation of the thermal fuse and during normal operating conditions, wherein during a high temperature fault condition or a high current fault condition, the PTC device increases in resistance, causing current flowing in series through the PTC device and the conduction element, between the first end of the PTC device and the second end of the conduction element, to divert to flow in parallel through the restraining element, to cause the restraining element to release the conduction element. a positive-temperature-coefficient, PTC, device that defines a first end and a second end; a conduction element that defines a first end and a second end, the first end of the conduction element electrically connected to the second end of the PTC device; and a restraining element that defines a first end and a second end, the first end of the restraining element electrically connected to the first end of the PTC device and the second end of the restraining element electrically connected to the second end of the conduction element, characterized in that the restraining element is adapted to prevent the conduction element from coming out of electrical connection with the PTC device during installation of the thermal fuse and during normal operating conditions, wherein during a high temperature fault condition or a high current fault condition, the PTC device increases in resistance, causing current flowing in series through the PTC device and the conduction element, between the first end of the PTC device and the second end of the conduction element, to divert to flow in parallel through the restraining element, to cause the restraining element to release the conduction element.