mhurhangee/ep-ind-claims huggingface dataset:
A process of dehumidifying plastic material in granules, comprising the steps of: - introducing a quantity of plastic material to be dehumidified into a hopper; - bringing said plastic material into contact with a process gas having a specified temperature and moisture content which is introduced into said hopper at a specified flow rate in order to dehumidify said plastic material; - discharging at least some of said plastic material from said hopper at successive times; - measuring the quantity of plastic material discharged from said hopper in a specified period and calculating a mean hourly flow rate of the discharged plastic material; - determining an effective flow rate of process gas as a function of said mean hourly flow rate of discharged plastic material, and regulating accordingly the flow rate of process gas introduced into said hopper; and characterized in that it comprises the steps of: - determining an effective load level of the hopper as a function of said mean hourly flow rate of discharged plastic material so as to ensure that the plastic material remains inside said hopper for a suitable period; - loading said plastic material into said hopper, when required, up to said effective load level. - introducing a quantity of plastic material to be dehumidified into a hopper; - bringing said plastic material into contact with a process gas having a specified temperature and moisture content which is introduced into said hopper at a specified flow rate in order to dehumidify said plastic material; - discharging at least some of said plastic material from said hopper at successive times; - measuring the quantity of plastic material discharged from said hopper in a specified period and calculating a mean hourly flow rate of the discharged plastic material; - determining an effective flow rate of process gas as a function of said mean hourly flow rate of discharged plastic material, and regulating accordingly the flow rate of process gas introduced into said hopper; and - determining an effective load level of the hopper as a function of said mean hourly flow rate of discharged plastic material so as to ensure that the plastic material remains inside said hopper for a suitable period; - loading said plastic material into said hopper, when required, up to said effective load level.
Use of an antibacterial agent for disinfection of foods against bacteria belonging to the genus Listeria, wherein the antibacterial agent comprises as an active ingredient a compound represented by the following formula, extracted from rosemary
A deformation detecting device, comprising: a vibration module configured to vibrate a first point of a measuring plane of a measured object in a non-contact manner; a transmission time measurement module configured to measure transmission time of vibration from the first point to a second point of the measuring plane in a non-contact manner; characterized in that it comprises: an inclination measurement module configured to measure an inclination of the measuring plane to a reference surface in a non-contact manner; and a determination module configured to correct reference transmission time in response to the inclination of the measuring plane, said reference transmission time being transmission time of vibration from the first point to the second point in a case in which there is no inclination of the measuring plane, and to determine presence/absence of deformation in the measured object by comparing the transmission time with the corrected reference transmission time. a vibration module configured to vibrate a first point of a measuring plane of a measured object in a non-contact manner; a transmission time measurement module configured to measure transmission time of vibration from the first point to a second point of the measuring plane in a non-contact manner; an inclination measurement module configured to measure an inclination of the measuring plane to a reference surface in a non-contact manner; and a determination module configured to correct reference transmission time in response to the inclination of the measuring plane, said reference transmission time being transmission time of vibration from the first point to the second point in a case in which there is no inclination of the measuring plane, and to determine presence/absence of deformation in the measured object by comparing the transmission time with the corrected reference transmission time.
A wireless communication method, implemented by a wireless communication receiver, comprising: processing a wireless signal comprising information bits modulated using an orthogonal time frequency and space, OTFS, modulation scheme to generate time-frequency domain digital samples; performing linear equalization of the time-frequency domain digital samples resulting in an equalized signal; and characterized by inputting the equalized signal to a feedback filter operated in a delay-time domain to produce a decision feedback equalizer, DFE, output signal; extracting symbol estimates from the DFE output signal in a delay-Doppler domain; and recovering the information bits from the symbol estimates. processing a wireless signal comprising information bits modulated using an orthogonal time frequency and space, OTFS, modulation scheme to generate time-frequency domain digital samples; performing linear equalization of the time-frequency domain digital samples resulting in an equalized signal; and characterized by inputting the equalized signal to a feedback filter operated in a delay-time domain to produce a decision feedback equalizer, DFE, output signal; extracting symbol estimates from the DFE output signal in a delay-Doppler domain; and recovering the information bits from the symbol estimates.
An active object detection sensor that operates to form a detection area by a transmission area and a reception area each having a plurality of division areas (A1 to A6, TA11 to TA16, RA11 to RA16), and detect an object in the detection area, the active object detection sensor comprising: a plurality of transmitter elements each configured to transmit a detection ray for object detection, to the transmission area; a plurality of receiver elements each configured to receive the detection ray reflected by the object in the reception area; and a transmission-side optical divider and a reception-side optical divider, disposed in front of the transmitter elements and the receiver elements, respectively, wherein each optical divider includes a plurality of optical dividing pieces (7S, 8S) having a plurality of optical deflection surfaces (7a, 7b, 8a, 8b) on which an angle of traveling direction of the detection ray is varied to a plurality of angles so as to correspond to the plurality of the division areas, characterised in that each of the optical dividing pieces has a first optical deflection surface (7a, 8a) and a second optical deflection surface (7b, 8b), a ratio of an area of the second optical deflection surface (7b, 8b) forming a division area that is closer to the sensor, relative to an area of the first optical deflection surface (7a, 8a) forming a division area that is farther from the sensor, being set so as to be different between a transmission side and a reception side. a plurality of transmitter elements each configured to transmit a detection ray for object detection, to the transmission area; a plurality of receiver elements each configured to receive the detection ray reflected by the object in the reception area; and a transmission-side optical divider and a reception-side optical divider, disposed in front of the transmitter elements and the receiver elements, respectively, wherein each optical divider includes a plurality of optical dividing pieces (7S, 8S) having a plurality of optical deflection surfaces (7a, 7b, 8a, 8b) on which an angle of traveling direction of the detection ray is varied to a plurality of angles so as to correspond to the plurality of the division areas, characterised in that each of the optical dividing pieces has a first optical deflection surface (7a, 8a) and a second optical deflection surface (7b, 8b), a ratio of an area of the second optical deflection surface (7b, 8b) forming a division area that is closer to the sensor, relative to an area of the first optical deflection surface (7a, 8a) forming a division area that is farther from the sensor, being set so as to be different between a transmission side and a reception side.
A method for a transmitting device to transmit signals using Single Carrier - Frequency Divisional Multiple Access Multiple Input Multiple Output, SC-FDMA MIMO, scheme, the method comprising: precoding signals of 2 layers by using a specific precoding matrix P multiplied by a predetermined constant value; and transmitting the precoded signals to a receiving device via 4 transmission antennas, the method is characterized in that: the specific precoding matrix P is selected from a Rank 2 codebook, wherein the Rank 2 codebook comprises 3 types of precoding matrices: a first type 1 0 X 0 0 1 0 Y, a second type 1 0 0 1 X 0 0 Y, and a third type 1 0 0 1 0 Y X 0, where X, Y ∈ 1, 1 + j 2, j, 1 − j 2, − 1, − 1 − j 2, − j, − 1 + j 2, and every precoding matrix included in the Rank 2 codebook satisfies that each of the 4 transmission antennas transmits only 1 layer, wherein individual rows of every precoding matrix respectively correspond to the 4 transmission antennas and the individual columns of every precoding matrix respectively correspond to the 2 layers. precoding signals of 2 layers by using a specific precoding matrix P multiplied by a predetermined constant value; and transmitting the precoded signals to a receiving device via 4 transmission antennas, the method is characterized in that: the specific precoding matrix P is selected from a Rank 2 codebook, wherein the Rank 2 codebook comprises 3 types of precoding matrices: a first type 1 0 X 0 0 1 0 Y, a second type 1 0 0 1 X 0 0 Y, and a third type 1 0 0 1 0 Y X 0, where X, Y ∈ 1, 1 + j 2, j, 1 − j 2, − 1, − 1 − j 2, − j, − 1 + j 2, and every precoding matrix included in the Rank 2 codebook satisfies that each of the 4 transmission antennas transmits only 1 layer, wherein individual rows of every precoding matrix respectively correspond to the 4 transmission antennas and the individual columns of every precoding matrix respectively correspond to the 2 layers. the specific precoding matrix P is selected from a Rank 2 codebook, wherein the Rank 2 codebook comprises 3 types of precoding matrices: a first type 1 0 X 0 0 1 0 Y, a second type 1 0 0 1 X 0 0 Y, and a third type 1 0 0 1 0 Y X 0, where X, Y ∈ 1, 1 + j 2, j, 1 − j 2, − 1, − 1 − j 2, − j, − 1 + j 2, and every precoding matrix included in the Rank 2 codebook satisfies that each of the 4 transmission antennas transmits only 1 layer, wherein individual rows of every precoding matrix respectively correspond to the 4 transmission antennas and the individual columns of every precoding matrix respectively correspond to the 2 layers.
A battery cooling system of an electric mining machine, comprising: fluid lines arranged to communicate with a battery to be cooled for transferring heat energy from said battery to coolant within said fluid lines, a coolant cartridge receiver, a coolant cartridge having a capacity for receiving and storing heat energy, wherein said fluid lines are connected to said coolant cartridge receiver for transferring heat energy from the coolant within the fluid lines to the coolant cartridge arranged in the coolant cartridge receiver, characterized in that, the coolant cartridge is removably arrangeable in said coolant cartridge receiver. fluid lines arranged to communicate with a battery to be cooled for transferring heat energy from said battery to coolant within said fluid lines, a coolant cartridge receiver, a coolant cartridge having a capacity for receiving and storing heat energy, wherein said fluid lines are connected to said coolant cartridge receiver for transferring heat energy from the coolant within the fluid lines to the coolant cartridge arranged in the coolant cartridge receiver, characterized in that, the coolant cartridge is removably arrangeable in said coolant cartridge receiver.
A lubricating oil composition comprising: a lubricating base oil having a kinematic viscosity (Vb) at 100°C of from 3 to 8 mm 2 /s, and, on the basis of the total mass of the composition, a poly(meth)acrylate additive having a weight average molecular weight of from 30,000 to 1,000,000 in an amount of from 0.1 to 2.0 percent by mass, a metallic detergent in an amount of from 0.03 to 0.5 percent by mass in terms of metal, an ashless dispersant in an amount of from 0.005 to 0.15 percent by mass in terms of nitrogen, and zinc dithiophosphate in an amount of from 0.02 to 0.3 percent by mass in terms of phosphorus, wherein the composition has a kinematic viscosity (Vc) at 100°C of from 3 to 9 mm 2 /s and a viscosity index of from 95 to 200, and the ratio Vb/Vc is from 0.60 to 1.0. a lubricating base oil having a kinematic viscosity (Vb) at 100°C of from 3 to 8 mm 2 /s, and, on the basis of the total mass of the composition, a poly(meth)acrylate additive having a weight average molecular weight of from 30,000 to 1,000,000 in an amount of from 0.1 to 2.0 percent by mass, a metallic detergent in an amount of from 0.03 to 0.5 percent by mass in terms of metal, an ashless dispersant in an amount of from 0.005 to 0.15 percent by mass in terms of nitrogen, and zinc dithiophosphate in an amount of from 0.02 to 0.3 percent by mass in terms of phosphorus,
Tyre tread that comprises a rubber composition based: - on an elastomer matrix that comprises more than 50% by weight of at least one butyl rubber, - on a reinforcing filler, - and on a plasticizing system that comprises at least one phosphoric acid ester having a glass transition temperature below -75°C, - the content of the at least one ester varies within a range extending from 10 to 80 phr. - on an elastomer matrix that comprises more than 50% by weight of at least one butyl rubber, - on a reinforcing filler, - and on a plasticizing system that comprises at least one phosphoric acid ester having a glass transition temperature below -75°C, - the content of the at least one ester varies within a range extending from 10 to 80 phr.
Coding system for forming a security feature in or on one or more security or value documents, comprising - at least two individual phosphors (1, 2), and - at least three phosphor combinations (M-1, M-2, M-3) formed with the at least two individual phosphors (1, 2), wherein - the at least three phosphor combinations (M-1, M-2, M-3) are applied or affixed in the form of at least three luminescent security elements for the security feature in or on the one or more security or value documents, and - the at least three phosphor combinations (M-1, M-2, M-3) are each excitable in the non-visible spectral range and emit in the visible spectral range after excitation, wherein - each of the at least three phosphor combinations (M-1, M-2, M-3) is characterized by an emission spectrum with several individual emission lines and/or emission bands, and wherein - each of the at least three phosphor combinations (M-1, M-2, M-3) has an identical spectral sequence of emission lines and/or emission bands, whereby the intensity ratios of the emission lines and/or emission bands are different, - a uniform spectral code is assigned to each of the at least three luminescent security elements, wherein the code is formed by the spectral sequence of the emission lines and/or emission bands, and wherein - the at least three luminescent security elements of the security feature have different color coordinates (M-10, M-20, M-30) in a CIE standard color system when excited, so that they evoke different color impressions in an observer. - at least two individual phosphors (1, 2), and - at least three phosphor combinations (M-1, M-2, M-3) formed with the at least two individual phosphors (1, 2), wherein - the at least three phosphor combinations (M-1, M-2, M-3) are applied or affixed in the form of at least three luminescent security elements for the security feature in or on the one or more security or value documents, and - the at least three phosphor combinations (M-1, M-2, M-3) are each excitable in the non-visible spectral range and emit in the visible spectral range after excitation, wherein - each of the at least three phosphor combinations (M-1, M-2, M-3) is characterized by an emission spectrum with several individual emission lines and/or emission bands, and - each of the at least three phosphor combinations (M-1, M-2, M-3) has an identical spectral sequence of emission lines and/or emission bands, whereby the intensity ratios of the emission lines and/or emission bands are different, - a uniform spectral code is assigned to each of the at least three luminescent security elements, wherein the code is formed by the spectral sequence of the emission lines and/or emission bands, and wherein - the at least three luminescent security elements of the security feature have different color coordinates (M-10, M-20, M-30) in a CIE standard color system when excited, so that they evoke different color impressions in an observer.
Container, in particular pallet container, which, on at least one side wall (2; 2a; 2b; 2d; 2f; 2g), has a loading opening, which can be closed by a flap (4; 4a; 4b; 4d, 4f; 4g), and comprises a device for retaining the flap (4; 4a; 4b; 4d; 4f; 4g) in a closed position, wherein the retaining device comprises an abutment (6; 6a; 6b; 6d; 6f; 6g), which is arranged on the side wall (2d; 2g) or on the flap (4; 4a; 4b; 4f) and is provided to retain the flap (4; 4a; 4b; 4d; 4f; 4g) in the closed position and is designed such that the flap (4; 4a; 4b; 4d; 4f; 4g) can be moved into the closed position, as it does so overcoming an opposing force exerted by the abutment (6; 6a; 6b; 6d; 6f; 6g), characterized in that the abutment (6; 6a; 6b; 6d; 6f; 6g) comprises a fastening portion (24; 24f; 24g), by means of which the abutment (6; 6a; 6b; 6d; 6f; 6g) is fastened either on an outer side of the flap (4; 4f) or on an inner side of the flap (4a; 4b) or an inner side of the side wall (2d; 2g), and in that, from the fastening portion (24; 24f; 24g), a retaining body (10; 10a; 10b; 10d; 10f; 10g) projects from a periphery (20; 20a; 20b; 20f) of the flap (4; 4a; 4b; 4f) in the direction of the opposite periphery (7; 7a; 7b; 7f) of the side wall (2; 2a; 2b; 2f) or projects from a periphery (7d; 7g) of the side wall (2d; 2g) in the direction of an opposite periphery (20d; 20g) of the flap (4d; 4g), and therefore, a) when the abutment (6d; 6g) is arranged on a periphery (7d; 7g) of the side wall (2d; 2g), said periphery being directed towards the loading opening, the flap (4d; 4g) has to have its periphery (20d; 20g), which is directed towards the abutment (6d; 6g), pushed past the abutment (6d; 6g), in or out of the closed position, counter to the opposing force exerted by the abutment (6d; 6g), wherein the periphery (20d; 20g) slides along the abutment (6d; 6g), or, b) when the abutment (6; 6a; 6b; 6f) is arranged on the flap (4; 4a; 4b; 4f), the abutment (6; 6a; 6b; 6f) together with the flap (4; 4a; 4b; 4f) has to be pushed past the periphery (7; 7a; 7b; 7f) of the side wall (2; 2a; 2b; 2f), said periphery being directed towards the loading opening, in or out of the closed position, wherein the abutment (6; 6a; 6b; 6f) slides along the periphery (7; 7a; 7b; 7f). a) when the abutment (6d; 6g) is arranged on a periphery (7d; 7g) of the side wall (2d; 2g), said periphery being directed towards the loading opening, the flap (4d; 4g) has to have its periphery (20d; 20g), which is directed towards the abutment (6d; 6g), pushed past the abutment (6d; 6g), in or out of the closed position, counter to the opposing force exerted by the abutment (6d; 6g), wherein the periphery (20d; 20g) slides along the abutment (6d; 6g), or, b) when the abutment (6; 6a; 6b; 6f) is arranged on the flap (4; 4a; 4b; 4f), the abutment (6; 6a; 6b; 6f) together with the flap (4; 4a; 4b; 4f) has to be pushed past the periphery (7; 7a; 7b; 7f) of the side wall (2; 2a; 2b; 2f), said periphery being directed towards the loading opening, in or out of the closed position, wherein the abutment (6; 6a; 6b; 6f) slides along the periphery (7; 7a; 7b; 7f).
A diaphragm damper comprising: two diaphragms; and a high-pressure chamber that is configured by the two diaphragms and retains a high-pressure gas in a sealed manner, wherein peripheries of the two diaphragms form an outer rim of the diaphragm damper, wherein the entire circumference of the outer rim is continuously sealed and joined by laser welding, a thickness (t) of a tip of the outer rim is set in correspondence with a spot diameter (d) of a laser beam at the tip of the outer rim, and a weld bead is formed by welding in the entire area of the tip of the outer rim, characterised in that said diaphragm damper further comprises a first cover member and a second cover member, which respectively support the two diaphragms, wherein the first and second cover members (17, 18) each have a clamping portion (17a, 18a) that clamps the periphery of the corresponding one of the two diaphragms, and the clamping portion of the first cover member and the clamping portion of the second cover member each have an outer surface with a gradient (17b, 18b), wherein the gradients (17b, 18b) are each set such that the thickness of the clamping portion (17a, 18a) decreases toward the tip of the clamping portion (17a, 18a). two diaphragms; and a high-pressure chamber that is configured by the two diaphragms and retains a high-pressure gas in a sealed manner, wherein peripheries of the two diaphragms form an outer rim of the diaphragm damper, wherein the entire circumference of the outer rim is continuously sealed and joined by laser welding, a thickness (t) of a tip of the outer rim is set in correspondence with a spot diameter (d) of a laser beam at the tip of the outer rim, and a weld bead is formed by welding in the entire area of the tip of the outer rim, characterised in that said diaphragm damper further comprises a first cover member and a second cover member, which respectively support the two diaphragms, wherein the first and second cover members (17, 18) each have a clamping portion (17a, 18a) that clamps the periphery of the corresponding one of the two diaphragms, and the clamping portion of the first cover member and the clamping portion of the second cover member each have an outer surface with a gradient (17b, 18b), wherein the gradients (17b, 18b) are each set such that the thickness of the clamping portion (17a, 18a) decreases toward the tip of the clamping portion (17a, 18a).
An implantable sensor for implantation in a vessel, comprising: a plurality of pairs of electrodes (2, 9) for placement on, in or adjacent a vessel wall; means for selecting at least one pair of electrodes from the plurality of pairs of electrodes to which drive signals are to be delivered; means for providing a drive signal to the at least one selected pair of electrodes; means for measuring at least one of impedance and capacitance between the electrodes in the at least one selected pair of electrodes; and means for wirelessly communicating data from the sensor; characterized in that the plurality of pairs of electrodes are comprised in a circumferential array of electrodes, wherein the electrodes are disposed at a predetermined circumferential spacing from each other. a plurality of pairs of electrodes (2, 9) for placement on, in or adjacent a vessel wall; means for selecting at least one pair of electrodes from the plurality of pairs of electrodes to which drive signals are to be delivered; means for providing a drive signal to the at least one selected pair of electrodes; means for measuring at least one of impedance and capacitance between the electrodes in the at least one selected pair of electrodes; and means for wirelessly communicating data from the sensor; characterized in that the plurality of pairs of electrodes are comprised in a circumferential array of electrodes, wherein the electrodes are disposed at a predetermined circumferential spacing from each other.