mhurhangee/ep-ind-claims huggingface dataset:
An ink comprising: at least one kind of polyether-modified siloxane compound; and at least one kind of aliphatic alcohol alkylene oxide compound, wherein the polyether-modified siloxane compound is at least one member selected from the group consisting of compounds represented by any one of the following Chemical formulae VI, VII and IX, where n represents an integer of from 2 to 17, where n represents an integer of from 2 to 17, where, k + m represents 0 or an integer of from 1 to 7, l represents an integer of from 1 to 2, and n represents an integer of from 2 to 16, and wherein the mass ratio (polyether-modified siloxane compound/aliphatic alcohol alkylene oxide compound) of the polyether-modified siloxane compound to the aliphatic alcohol alkylene oxide compound is from 20/80 to 40/60. at least one kind of polyether-modified siloxane compound; and at least one kind of aliphatic alcohol alkylene oxide compound, wherein the polyether-modified siloxane compound is at least one member selected from the group consisting of compounds represented by any one of the following Chemical formulae VI, VII and IX, where n represents an integer of from 2 to 17, where n represents an integer of from 2 to 17, where, k + m represents 0 or an integer of from 1 to 7, l represents an integer of from 1 to 2, and n represents an integer of from 2 to 16, and wherein the mass ratio (polyether-modified siloxane compound/aliphatic alcohol alkylene oxide compound) of the polyether-modified siloxane compound to the aliphatic alcohol alkylene oxide compound is from 20/80 to 40/60. where, k + m represents 0 or an integer of from 1 to 7, l represents an integer of from 1 to 2, and n represents an integer of from 2 to 16, and wherein the mass ratio (polyether-modified siloxane compound/aliphatic alcohol alkylene oxide compound) of the polyether-modified siloxane compound to the aliphatic alcohol alkylene oxide compound is from 20/80 to 40/60.
Use of aromatic and araliphatic carboxylic acids in aqueous basecoat materials for the purpose of improving the adhesion of these coating materials to overbaked clearcoat materials.
A semiconductor nanoparticle aggregate containing semiconductor nanoparticles having a core/shell structure, wherein an agglomeration state of an agglomerate made by agglomerating the semiconductor nanoparticles is controlled by using physical energy, thereby forming the semiconductor nanoparticle aggregate; wherein a coating structure is formed so as to coat the agglomerate made by agglomerating the semiconductor nanoparticles, thereby forming the semiconductor nanoparticle aggregate; wherein a raw material that configures the coating structure is hydrophilic polymer; wherein an average particle size of the nanoparticle aggregate is in a range from 30 to 300 nm; characterized in that a variation coefficient of particle size of the nanoparticle aggregate is in a range from 0.02 to 0.2 and wherein the particle sizes of the semiconductor nanoparticle aggregates are measured by a dynamic light scattering method.
Aerated fat-based confectionery material having a continuous lipid phase, a porosity of between 1 and 80 % and containing less than 5 % water by weight, wherein, at a temperature at which the lipid phase has a solid lipid content between 0.1 and 80%, the fat-based confectionery material comprises gas bubbles having at least 50 % of their surface occupied by crystals, the crystals comprising a glyceride selected from the group consisting of monoglycerides, diglycerides, triglycerides, esters of monoglycerides, esters of diglycerides and combinations of these, wherein the crystals comprising a glyceride occupying the surface of the gas bubbles form layers having an average thickness below 5 μm and wherein the aerated fat-based confectionery material contains more than 95 % by weight of total lipids of glycerides all of whose fatty acids have a carbon chain length less than 22.
A combination effect pigment comprising: a platy substrate; an outer layer disposed above the platy substrate, wherein the outer layer is an optical layer; and carbon black, wherein the carbon black is disposed above the substrate and is entrapped by the outer layer, and wherein the carbon black is present in a form of hydrous oxide or hydroxide precipitate with a polyvalent cation selected from a group consisting of Al, Cr, Ti, Zn, Mg, Zr, Fe, Ce, and Sn. a platy substrate; an outer layer disposed above the platy substrate, wherein the outer layer is an optical layer; and carbon black, wherein the carbon black is disposed above the substrate and is entrapped by the outer layer, and wherein the carbon black is present in a form of hydrous oxide or hydroxide precipitate with a polyvalent cation selected from a group consisting of Al, Cr, Ti, Zn, Mg, Zr, Fe, Ce, and Sn.
A method for heating a passenger compartment of a motor vehicle, wherein a heating device of a passenger compartment heater is able to be heated via cooling means of an internal combustion engine of the motor vehicle, and wherein an electric auxiliary heater of the passenger compartment heater generates additional heating energy for heating the passenger compartment at least if the heating device is only able to heat the passenger compartment in an insufficient manner, wherein the speed of the internal combustion engine is automatically changed independent of a drive mode of the motor vehicle in order to provide a requested heating power of the electrical auxiliary heater, wherein, in order to increase the heating power of the electric auxiliary heater, the speed of the internal combustion engine and/or of a generator is automatically raised dependent on a heating power requirement signal of an operating device of the passenger compartment heater and dependent on an ambient temperature signal of the motor vehicle or of the passenger compartment, characterised in that, in order to increase the heating power of the electric auxiliary heater, the internal temperature within the motor vehicle or the passenger compartment is further determined because additional information about the internal temperature is used in order to adjust the heating power, wherein the speed may be reduced as soon as the electric auxiliary heater has to produce a correspondent smaller or even no heating power, wherein, in order to increase the heating power of the electric auxiliary heater, the speed of an auxiliary heater generator of the motor vehicle is automatically increased independent of a drive mode of the motor vehicle, wherein the auxiliary heater generator which provides electric energy cumulative to other generators is provided.
A cartridge comprising: plural blood testing discs, each blood testing disc including a lancet (309, 701) and a blood collection and testing part (315, 316, 318), wherein: each of the discs has a generally circular shape with a cutout (643, 712) at one side thereof; the lancet of each disc is supported at the periphery of the disc at a location that does not coincide with the cutout; the cartridge includes a side face having an aperture formed therein; the discs are supported in a rotatable manner on a common longitudinal axis; in a non-operational condition, the cutouts of the discs are located in a close proximity to and facing the side face of the cartridge; and in an operational condition a disc that is coincident with the aperture is permitted to rotate on the longitudinal axis such that the part of the disc on which the lancet is supported passes through the aperture to allow lancing. plural blood testing discs, each blood testing disc including a lancet (309, 701) and a blood collection and testing part (315, 316, 318), wherein: each of the discs has a generally circular shape with a cutout (643, 712) at one side thereof; the lancet of each disc is supported at the periphery of the disc at a location that does not coincide with the cutout; the cartridge includes a side face having an aperture formed therein; the discs are supported in a rotatable manner on a common longitudinal axis; in a non-operational condition, the cutouts of the discs are located in a close proximity to and facing the side face of the cartridge; and in an operational condition a disc that is coincident with the aperture is permitted to rotate on the longitudinal axis such that the part of the disc on which the lancet is supported passes through the aperture to allow lancing.
A method of operating a system for extracting air from a cooking environment, the system comprising a filter chamber (10/110), a means for determining a level of cooking activity, the means for detecting the level of cooking activity being a heat detector (12, 14/112, 114) or a smoke detector (16A, 16B/116A, 116B) or a carbon dioxide concentration measuring means (18/180) or two or more of these in combination, wherein the system further comprises a signal processing means (20/200) and a pumping means (22, 24, 122, 124), wherein the method comprises following steps: the means for determining the level of cooking activity feeds information to the signal processing (20/200) means in order to control the pumping means(22, 24, 122, 124) wherein the pumping means (22, 24, 122, 124), maintains: a first level (X') of air extraction when the level of cooking activity is below a first threshold, a second level (Y') of air extraction when the level of cooking activity is between the first threshold and a second threshold characterized in that the air extraction varies continuously with the level of cooking activity above the second threshold. the means for determining the level of cooking activity feeds information to the signal processing (20/200) means in order to control the pumping means(22, 24, 122, 124) wherein the pumping means (22, 24, 122, 124), maintains: a first level (X') of air extraction when the level of cooking activity is below a first threshold, a second level (Y') of air extraction when the level of cooking activity is between the first threshold and a second threshold characterized in that the air extraction varies continuously with the level of cooking activity above the second threshold. a first level (X') of air extraction when the level of cooking activity is below a first threshold, a second level (Y') of air extraction when the level of cooking activity is between the first threshold and a second threshold
An automatic analyzer, comprising: a container (1-15; 1-21) containing a reagent or a specimen, the container comprising a container accommodation portion as a space for containing the reagent or the specimen, a lid configured to close the container accommodation portion, and a rotation fulcrum supporting the lid, the lid being openable and closable by rotation about the rotation fulcrum; and a lid closing guide portion configured to close the lid by being moved relative to the container accommodation portion and being brought into contact with an edge of the lid by the automatic analyzer to close the lid characterized in that, when the lid closing guide portion is in contact with the edge of the lid, the lid closing guide portion is not in contact with an upper surface of the lid and a contact angle between the lid closing guide portion and the lid is an acute angle, where the contact angle is the angle sandwiched between a half-line in the rotation axis direction of the rotation fulcrum and a half-line in the tangent direction of the lid closing guide portion and starting from the contact point of the lid closing guide portion and the lid. a container (1-15; 1-21) containing a reagent or a specimen, the container comprising a container accommodation portion as a space for containing the reagent or the specimen, a lid configured to close the container accommodation portion, and a rotation fulcrum supporting the lid, the lid being openable and closable by rotation about the rotation fulcrum; and a lid closing guide portion configured to close the lid by being moved relative to the container accommodation portion and being brought into contact with an edge of the lid by the automatic analyzer to close the lid characterized in that, when the lid closing guide portion is in contact with the edge of the lid, the lid closing guide portion is not in contact with an upper surface of the lid and a contact angle between the lid closing guide portion and the lid is an acute angle, where the contact angle is the angle sandwiched between a half-line in the rotation axis direction of the rotation fulcrum and a half-line in the tangent direction of the lid closing guide portion and starting from the contact point of the lid closing guide portion and the lid.
A two-stroke internal combustion engine (1;2) comprising one pair or a plurality of pairs of scavenging passages (31,32) that adopt a reverse scavenging system in such a manner as to communicate a combustion actuating chamber formed above a piston with a crankchamber, characterized in that a horizontal sectional shape of at least one pair of the scavenging passages (31,32) is defined to be substantially triangular along substantially the entire lengths of the at least one pair of the scavenging passages (31,32), where a cylinder outer circumferential side of the horizontal sectional shape is narrowest and a cylinder bore wall surface side of the horizontal sectional shape is wide, wherein among the wall surfaces of the substantial triangle, guide wall surfaces (31c,32c) are formed from the narrowest position of the cylinder outer circumferential side towards an intake port, said intake port provided on the other side of the cylinder bore than the exhaust port, of the outlet (31b,32b) of the scavenging passages (31,32), and the guide wall surfaces (31c,32c) of the scavenging passages (31,32) form a horizontal scavenging angle (α,β), which is an angle of intersection formed between lines (Ea,Ea and Eb,Eb) extended towards the intake port from the guide wall surfaces (31c,32c), the angle (α,β) being acute.
A terminal device comprising an antenna apparatus, a metal middle frame, and a metal frame, wherein the antenna apparatus comprises a first medium- and high-band antenna, a slot is opened on a side of the metal middle frame, and the first medium- and high-band antenna comprises a first feed point, a first dipole antenna, and a radiating slot, wherein the radiating slot is constituted by the metal middle frame and the metal frame, a first end of the radiating slot is connected to the side slot of the metal middle frame and is grounded by using the metal middle frame, and an opening of a second end of the radiating slot is disposed at a bottom edge of the metal frame; wherein the first dipole antenna is connected to the first feed point; and the first dipole antenna is spaced from the radiating slot, and the first dipole antenna is orthogonally crossed over the radiating slot; wherein the antenna apparatus further comprises a low-band antenna, and the low-band antenna comprises a second feed point, a first straight arm, a second straight arm, and a ground point, wherein the ground point is located on a first side of the second feed point; a first end of the first straight arm is connected to the second feed point; and a second end of the first straight arm is connected to a first end of the second straight arm, and a second end of the second straight arm is connected to the ground point; characterized in that the low-band antenna further comprises a matching circuit, the matching circuit is configured to isolate interference from the medium- and high-band antenna to the low-band antenna, and the first straight arm is connected to the second feed point by using the matching circuit. the first dipole antenna is connected to the first feed point; and the first dipole antenna is spaced from the radiating slot, and the first dipole antenna is orthogonally crossed over the radiating slot; wherein the antenna apparatus further comprises a low-band antenna, and the low-band antenna comprises a second feed point, a first straight arm, a second straight arm, and a ground point, wherein the ground point is located on a first side of the second feed point; a first end of the first straight arm is connected to the second feed point; and a second end of the first straight arm is connected to a first end of the second straight arm, and a second end of the second straight arm is connected to the ground point; characterized in that the low-band antenna further comprises a matching circuit, the matching circuit is configured to isolate interference from the medium- and high-band antenna to the low-band antenna, and the first straight arm is connected to the second feed point by using the matching circuit.
A method for implementing data mapping and transmission, comprising: segmenting data to be transmitted into N code blocks, and dividing the N code blocks into M code block groups, CBGs, wherein a difference between numbers of code blocks in any two CBGs is less than or equal to a preset value, N and M are positive integers, N is greater than or equal to M, and M is greater than or equal to 2; and mapping the M CBGs to at least one transmission unit for bearing and transmission, characterized in that the M CBGs comprise a first CBG and a second CBG, and a number of code blocks in the first CBG is greater than a number of code blocks in the second CBG; and wherein the at least one transmission unit comprises a first physical resource corresponding to the first CBG and a second physical resource corresponding to the second CBG, and the first physical resource is ahead of the second physical resource in time domain. segmenting data to be transmitted into N code blocks, and dividing the N code blocks into M code block groups, CBGs, wherein a difference between numbers of code blocks in any two CBGs is less than or equal to a preset value, N and M are positive integers, N is greater than or equal to M, and M is greater than or equal to 2; and mapping the M CBGs to at least one transmission unit for bearing and transmission, characterized in that the M CBGs comprise a first CBG and a second CBG, and a number of code blocks in the first CBG is greater than a number of code blocks in the second CBG; and wherein the at least one transmission unit comprises a first physical resource corresponding to the first CBG and a second physical resource corresponding to the second CBG, and the first physical resource is ahead of the second physical resource in time domain.
A machine body structure of a six-legged universal walking robot, comprising a head portion and a machine body, and characterized in that a distance measurement camera device is provided within the head portion, and comprises a rotating head and a frontal face distance measurement assembly mounted on the rotating head; the frontal face distance measurement assembly comprises a frontal face and an inner liner panel arranged on the inner side of the frontal face; a distance measurement camera module is mounted on the inner liner panel; a turntable is arranged on the upper surface of the machine body; the rotating head is fastened and fixed on the turntable on which a first circuit board is arranged; the distance measurement camera module is connected with the first circuit board; the machine body has an inner cavity and a driving mechanism and a main control circuit board are mounted within the inner cavity; the driving mechanism is provided with a rotating shaft; multiple conductive sliding rings for data communication with the main control circuit board are arranged on the peripheral surface of the rotating shaft; and the driving mechanism may drive the turntable to rotate 360°.
A meter verification method for a vibratory flowmeter, with the method comprising: vibrating a sensor assembly of the vibratory flowmeter with a plurality of test tones in a vibration mode using a driver, wherein the plurality of test tones is applied instantly, in the absence of a ramp function; determining a current of the driver for the vibration mode and determining response voltages of first and second pickoff sensors (170L, 170R) for the mode; measuring frequencies of the first and second pickoff sensor signals; applying a filter to the first and second pickoff sensor signals and current signal to isolate the response at each of the plurality of test tones; applying the filter to the frequencies measurements; applying a same delay to the frequencies measurements and the response at each of the plurality of test tones; generating a meter stiffness value using the filtered signals from the current and the response voltages; and verifying proper operation of the vibratory flowmeter using the meter stiffness value. vibrating a sensor assembly of the vibratory flowmeter with a plurality of test tones in a vibration mode using a driver, wherein the plurality of test tones is applied instantly, in the absence of a ramp function; determining a current of the driver for the vibration mode and determining response voltages of first and second pickoff sensors (170L, 170R) for the mode; measuring frequencies of the first and second pickoff sensor signals; applying a filter to the first and second pickoff sensor signals and current signal to isolate the response at each of the plurality of test tones; applying the filter to the frequencies measurements; applying a same delay to the frequencies measurements and the response at each of the plurality of test tones; generating a meter stiffness value using the filtered signals from the current and the response voltages; and verifying proper operation of the vibratory flowmeter using the meter stiffness value.
A neurostimulation assembly comprising: at least one electrode sized and configured for implantation in a targeted neural or muscular tissue region; a carrier sized and configured to be carried by the patient; an electronics pod removably carried on-board the carrier, the electronics pod including circuitry configured to generate a stimulation pulse; a lead electrically coupled to the electrode and including a connection element adapted to electrically couple to the electronics pod, a surface mountable return electrode adapted to be electrically coupled to the electronics pod, characterised in that the surface mountable return electrode comprises: a top layer and a bottom layer, the bottom layer adapted to provide electrical contact and adhesion to a patient, a power source positioned between the top layer and the bottom layer, and electrically coupled to the bottom layer and a cable assembly, and a connector electrically coupled to the cable assembly, the cable assembly and connector adapted to provide electrical contact between the power source and the electronics pod. at least one electrode sized and configured for implantation in a targeted neural or muscular tissue region; a carrier sized and configured to be carried by the patient; an electronics pod removably carried on-board the carrier, the electronics pod including circuitry configured to generate a stimulation pulse; a lead electrically coupled to the electrode and including a connection element adapted to electrically couple to the electronics pod, a surface mountable return electrode adapted to be electrically coupled to the electronics pod, characterised in that the surface mountable return electrode comprises: a top layer and a bottom layer, the bottom layer adapted to provide electrical contact and adhesion to a patient, a power source positioned between the top layer and the bottom layer, and electrically coupled to the bottom layer and a cable assembly, and a connector electrically coupled to the cable assembly, the cable assembly and connector adapted to provide electrical contact between the power source and the electronics pod. a top layer and a bottom layer, the bottom layer adapted to provide electrical contact and adhesion to a patient, a power source positioned between the top layer and the bottom layer, and electrically coupled to the bottom layer and a cable assembly, and a connector electrically coupled to the cable assembly, the cable assembly and connector adapted to provide electrical contact between the power source and the electronics pod.