mhurhangee/ep-ind-claims huggingface dataset:
A method for evaluating the eye irritation potential of a test compound, comprising the steps of: a) bringing a test compound into contact with an in vitro reconstructed corneal sample; b) measuring the expression of at least two genes selected from the group consisting of: HSP90AA1, COL7A1, NOS3, MMP8, CASP1, ELN, IL-23R, DLK1, CLEC4D, IL-24, CCL22, SLIT2, ICAM2, MUC13, HSPA1A, FSHR, IL-1R2, ALB, CCND1, CXCL1, CXCR1, KL, COL6A2, MUC4, DDIT3, MMP3, HAS1, IRF1, CYR61. characterized in that: - the bringing into contact of the test compound in step a) is carried out with the test compound in solid form and step b) comprises measuring the expression of at least two genes selected from the group consisting of: IL-24, IL-23R, DDIT3, MMP8, DLK1, HAS1, CYR61, IL-1R2, CLEC4D, ICAM2, CASP1, MUC13 and MUC4, or - the bringing into contact of the test compound in step a) is carried out with the test compound in liquid form and step b) comprises measuring the expression of at least two genes selected from the group consisting of: HSP90AA1, CASP1, DLK1, CLEC4D, IL-24, SLIT2, HSPA1A, FSHR, IL-1R2 and CCND1. a) bringing a test compound into contact with an in vitro reconstructed corneal sample; b) measuring the expression of at least two genes selected from the group consisting of: HSP90AA1, COL7A1, NOS3, MMP8, CASP1, ELN, IL-23R, DLK1, CLEC4D, IL-24, CCL22, SLIT2, ICAM2, MUC13, HSPA1A, FSHR, IL-1R2, ALB, CCND1, CXCL1, CXCR1, KL, COL6A2, MUC4, DDIT3, MMP3, HAS1, IRF1, CYR61. - the bringing into contact of the test compound in step a) is carried out with the test compound in solid form and step b) comprises measuring the expression of at least two genes selected from the group consisting of: IL-24, IL-23R, DDIT3, MMP8, DLK1, HAS1, CYR61, IL-1R2, CLEC4D, ICAM2, CASP1, MUC13 and MUC4, or - the bringing into contact of the test compound in step a) is carried out with the test compound in liquid form and step b) comprises measuring the expression of at least two genes selected from the group consisting of: HSP90AA1, CASP1, DLK1, CLEC4D, IL-24, SLIT2, HSPA1A, FSHR, IL-1R2 and CCND1.
A photoelectric conversion device (10; 20) comprising a first layer and a second layer located on the first layer, wherein: the first layer comprises an electrode layer; the second layer comprises a light-absorbing layer comprising a group I-III-VI compound semiconductor; the light-absorbing layer comprises a first region and a second region located farther from the first layer than the first region; and an average grain diameter of crystal grains in the second region is larger than an average grain diameter of crystal grains in the first region, characterized in that voids are present in at least the first region amongst the first region and the second region, and a void volume in the first region is larger than a void volume in the second region. the first layer comprises an electrode layer; the second layer comprises a light-absorbing layer comprising a group I-III-VI compound semiconductor; the light-absorbing layer comprises a first region and a second region located farther from the first layer than the first region; and an average grain diameter of crystal grains in the second region is larger than an average grain diameter of crystal grains in the first region, characterized in that voids are present in at least the first region amongst the first region and the second region, and a void volume in the first region is larger than a void volume in the second region.
Refrigeration and/or freezer appliance, comprising an appliance body that comprises heat-insulating walls that surround an interior, and comprising a coolant circuit which comprises, as components, a compressor, a condenser, a throttle and a vaporiser, wherein all the components of the coolant circuit are installed together on a unit support which can, as a whole, be mounted on the appliance body and separated therefrom, wherein the unit support comprises at least one electrical contact which can be contacted automatically with at least one complementary mating contact installed on the appliance body, for supplying electrical power to at least one component, when the unit support is inserted in the appliance body, characterised in that the at least one complementary mating contact, in particular plug connector, is movably mounted, in that the at least one complementary mating contact is located in a horizontal initial position, such that the longitudinal axis thereof is oriented horizontally, and in that the at least one complementary mating contact comprises an upwardly oriented plug opening, wherein the at least one complementary mating contact is tilted or hinged or displaced, when the at least one electrical contact of the unit support is contacted with the at least one complementary mating contact, such that the longitudinal axis thereof is tilted relative to the horizontal, as a result of which said mating contact can change the position thereof while the connection is being established, such that a fluid collected in the contact region can flow away automatically.
A toner comprising: a crystalline resin; wherein the crystalline resin contains a crystalline resin having a urethane bond, a urea bond or both thereof, and wherein the crystalline resin has an average crystallite diameter of 20 nm to 70 nm. a crystalline resin; wherein the crystalline resin contains a crystalline resin having a urethane bond, a urea bond or both thereof, and wherein the crystalline resin has an average crystallite diameter of 20 nm to 70 nm.
A method of polymerizing olefins to produce a polyolefin polymer with a multimodal composition distribution, comprising contacting ethylene and a comonomer with a catalyst system, wherein the catalyst system comprises a first catalyst compound and a second catalyst compound that are co-supported to form a commonly supported catalyst system, wherein the first catalyst compound comprises the following formula: (C 5 H a R 1 b)(C 5 H c R 2 d)HfX 2 wherein each R 1 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; each R 2 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; a and c are ≥ 3; a+b = c+d = 5; at least one R 1 and at least one R 2 is a hydrocarbyl or substituted hydrocarbyl group; adjacent R 1 and R 2 groups may be coupled to form a ring; and each X is independently a leaving group selected from a labile hydrocarbyl, substituted hydrocarbyl, or heteroatom group, or a divalent radical that links to an R 1 or R 2 group; and the second catalyst compound comprises the following formula: wherein each R 3 or R 4 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group, wherein each R 3 or R 4 may be the same or different; and each X is independently a leaving group selected from a labile hydrocarbyl, a substituted hydrocarbyl, a heteroatom group, or a divalent radical that links to an R 3 group; wherein the method comprises continuously combining a catalyst component slurry with a catalyst component solution to form the commonly supported catalyst system, wherein the catalyst component slurry comprises the first catalyst compound and the catalyst component solution comprises the second catalyst compound. wherein each R 1 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; each R 2 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; a and c are ≥ 3; a+b = c+d = 5; at least one R 1 and at least one R 2 is a hydrocarbyl or substituted hydrocarbyl group; adjacent R 1 and R 2 groups may be coupled to form a ring; and each X is independently a leaving group selected from a labile hydrocarbyl, substituted hydrocarbyl, or heteroatom group, or a divalent radical that links to an R 1 or R 2 group; and the second catalyst compound comprises the following formula: wherein each R 3 or R 4 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group, wherein each R 3 or R 4 may be the same or different; and each X is independently a leaving group selected from a labile hydrocarbyl, a substituted hydrocarbyl, a heteroatom group, or a divalent radical that links to an R 3 group;
JNK inhibitor comprising an inhibitory peptide sequence according to the following general formula: X1-X2-X3-R-X4-X5-X6-L-X7-L-X8 (SEQ ID NO: 1), wherein X1 is an amino acid selected from amino acids R, P and Q, wherein X2 is an amino acid selected from amino acids R, P and G, wherein X3 is an amino acid selected from amino acids K, R, k and r, wherein X4 is an amino acid selected from amino acids P and K, wherein X5 is an amino acid selected from amino acids T, a, s, q, k or is absent, wherein X6 is an amino acid selected from amino acids T, D and A, wherein X7 is an amino acid selected from amino acids N, n, r and K; and wherein X8 is an amino acid selected from F, f and w, and wherein an amino acid residue given in capital letters indicates an L-amino acid residue, while an amino acid residue given in small letters indicates a D amino acid residue, with the proviso that at least one of the amino acids selected from the group consisting of X3, X5, X7 and X8 is/are a D-amino acid(s). X1-X2-X3-R-X4-X5-X6-L-X7-L-X8 (SEQ ID NO: 1), wherein X1 is an amino acid selected from amino acids R, P and Q, wherein X2 is an amino acid selected from amino acids R, P and G, wherein X3 is an amino acid selected from amino acids K, R, k and r, wherein X4 is an amino acid selected from amino acids P and K, wherein X5 is an amino acid selected from amino acids T, a, s, q, k or is absent, wherein X6 is an amino acid selected from amino acids T, D and A, wherein X7 is an amino acid selected from amino acids N, n, r and K; and wherein X8 is an amino acid selected from F, f and w, and wherein an amino acid residue given in capital letters indicates an L-amino acid residue, while an amino acid residue given in small letters indicates a D amino acid residue,
A method for providing information which is suitable for configuring or selecting a breathing mask for a mask user, comprising the step of generating an individual spatial data record by reading-in the individual spatial face contour of the mask user at least in the area of the nose and/or mouth, wherein a sealing lip portion of the breathing mask is selected or configured on the basis of the detected spatial data record in such a manner that its spatial characteristic is adapted to the individual face curvature in the sealing lip rest area.
Process for manufacturing a self-sealing elastomer composition, said process being characterized in that it comprises at least the following steps (phr meaning parts by weight per one hundred parts of solid elastomer): a) a masterbatch, comprising at least one solid diene elastomer selected from the group consisting of polybutadienes, natural rubber, synthetic polyisoprenes, butadiene copolymers, isoprene copolymers and blends of such elastomers, and a thermoplastic hydrocarbon resin that is solid at 23°C in a content of between 30 and 90 phr, is firstly manufactured by compounding these various components in a mixer at a temperature or up to a temperature called the "hot compounding" temperature which is above the softening point of the hydrocarbon resin, measured according to the standard ISO 4625; and b) then at least one crosslinking system is incorporated into the masterbatch thus prepared, by compounding everything in the same mixer or in a different mixer, at a temperature or up to a maximum temperature which is kept below 100°C, in order to obtain said self-sealing composition; and in that at least one liquid plasticizer with a glass transition temperature (Tg) below -20°C, in a content of less than 60 phr, and 0 to less than 30 phr of filler are further incorporated into said masterbatch or said composition. a) a masterbatch, comprising at least one solid diene elastomer selected from the group consisting of polybutadienes, natural rubber, synthetic polyisoprenes, butadiene copolymers, isoprene copolymers and blends of such elastomers, and a thermoplastic hydrocarbon resin that is solid at 23°C in a content of between 30 and 90 phr, is firstly manufactured by compounding these various components in a mixer at a temperature or up to a temperature called the "hot compounding" temperature which is above the softening point of the hydrocarbon resin, measured according to the standard ISO 4625; and b) then at least one crosslinking system is incorporated into the masterbatch thus prepared, by compounding everything in the same mixer or in a different mixer, at a temperature or up to a maximum temperature which is kept below 100°C, in order to obtain said self-sealing composition;
A sliding lid structure comprising: a sheet base material capable of being curved in a sliding direction; and a plurality of ribs disposed on a lower surface side of the sheet base material at intervals in a sheet base material sliding direction, two ends of the rib engaging guide grooves being formed at two sides of an opening of a device main unit and having curved groove parts, and opening and closing the opening by sliding along the guide grooves, wherein the sheet base material includes a multiplicity of axially supported parts positioned on two sides of the lower surface side of the sheet base material and provided at predetermined intervals in a longitudinal direction, characterized in that the rib includes rib uppers arranged inside the axially supported parts on the two sides and attachable to and detachable from a sheet base material lower surface, shaft supports engaging the axially supported parts, and projections that fit into the guide grooves; and is rotatably or swingably supported with respect to the sheet base material centered on the shaft supports. a sheet base material capable of being curved in a sliding direction; and a plurality of ribs disposed on a lower surface side of the sheet base material at intervals in a sheet base material sliding direction, two ends of the rib engaging guide grooves being formed at two sides of an opening of a device main unit and having curved groove parts, and opening and closing the opening by sliding along the guide grooves, wherein the sheet base material includes a multiplicity of axially supported parts positioned on two sides of the lower surface side of the sheet base material and provided at predetermined intervals in a longitudinal direction, characterized in that the rib includes rib uppers arranged inside the axially supported parts on the two sides and attachable to and detachable from a sheet base material lower surface, shaft supports engaging the axially supported parts, and projections that fit into the guide grooves; and is rotatably or swingably supported with respect to the sheet base material centered on the shaft supports.
A fluid colloidal solution comprising: a silica source; a polar solvent; a glycol ether co-solvent; water, present at a molar ratio of H 2 O to Si of between 3 and 8; an acid catalyst; and an amphiphilic block copolymer surfactant template that makes the fluid colloidal solution lyotropic, characterised in that: the silica source is TEOS in combination with MTES, ETES or VTES, or TEOS and MTES in combination with ETES or DMDS; the polar solvent is ethanol; the co-solvent is diethylene glycol monoethyl ether or dipropylene glycol methyl ether; the acid catalyst is squaric acid; and the fluid colloidal solution forms an oxide-polymer nanocomposite when drying. a silica source; a polar solvent; a glycol ether co-solvent; water, present at a molar ratio of H 2 O to Si of between 3 and 8; an acid catalyst; and an amphiphilic block copolymer surfactant template that makes the fluid colloidal solution lyotropic, characterised in that: the silica source is TEOS in combination with MTES, ETES or VTES, or TEOS and MTES in combination with ETES or DMDS; the polar solvent is ethanol; the co-solvent is diethylene glycol monoethyl ether or dipropylene glycol methyl ether; the acid catalyst is squaric acid; and the fluid colloidal solution forms an oxide-polymer nanocomposite when drying. the silica source is TEOS in combination with MTES, ETES or VTES, or TEOS and MTES in combination with ETES or DMDS; the polar solvent is ethanol; the co-solvent is diethylene glycol monoethyl ether or dipropylene glycol methyl ether; the acid catalyst is squaric acid; and the fluid colloidal solution forms an oxide-polymer nanocomposite when drying.
A method of forming a toner, the method comprising: forming a toner from a mixture of at least one resin, at least one wax, and optionally, at least one colorant, wherein the toner is characterized by a measured PER 10 value of not more than 1 × 10 11 particles/cm 3; and measuring a PER 10 value for the toner, wherein the measured PER 10 value for the toner is not more than 1 × 10 11 particles/cm 3, and wherein the PER 10 value is measured according to the method disclosed in the description; wherein the at least one wax is characterized by a T m which is at least 90 °C and the amount of the at least one wax is no more than 10% by weight of the toner. forming a toner from a mixture of at least one resin, at least one wax, and optionally, at least one colorant, wherein the toner is characterized by a measured PER 10 value of not more than 1 × 10 11 particles/cm 3; and measuring a PER 10 value for the toner, wherein the measured PER 10 value for the toner is not more than 1 × 10 11 particles/cm 3, and wherein the PER 10 value is measured according to the method disclosed in the description; wherein the at least one wax is characterized by a T m which is at least 90 °C and the amount of the at least one wax is no more than 10% by weight of the toner.
A method for transmitting a pilot signal, comprising: determining at least two second pilot antenna ports as one first pilot antenna port; and sending, by a base station, a first pilot signal to user equipment by using a time-frequency resource corresponding to the first pilot antenna port, wherein the first pilot signal is used for channel quality measurement; wherein the determining at least two second pilot antenna ports as one first pilot antenna port specifically comprises: performing, by the base station, phase weighting on each of the second pilot antenna ports by using a phase weighting coefficient, to obtain the first pilot antenna port, wherein the phase weighting coefficient is predefined by the base station or fed back by the user equipment; characterized in that the phase weighting coefficient is defined as: W GOB = 1 e j φ 1 e j φ 2 ⋮ e j φ k − 1, φ m = 2 π m − 1 * d * sin α λ wherein, W GOB is the phase weighting coefficient, m denotes an m th second pilot antenna port used to form a first pilot antenna port, λ denotes a wavelength of an optical wave, k denotes a total quantity of first pilot antenna ports, α is an angle of arrival of a beam from the base station at the physical antenna of the user equipment and d is a distance between two neighboring physical antennas of the user equipment. determining at least two second pilot antenna ports as one first pilot antenna port; and sending, by a base station, a first pilot signal to user equipment by using a time-frequency resource corresponding to the first pilot antenna port, wherein the first pilot signal is used for channel quality measurement; wherein the determining at least two second pilot antenna ports as one first pilot antenna port specifically comprises: performing, by the base station, phase weighting on each of the second pilot antenna ports by using a phase weighting coefficient, to obtain the first pilot antenna port, wherein the phase weighting coefficient is predefined by the base station or fed back by the user equipment; characterized in that the phase weighting coefficient is defined as: W GOB = 1 e j φ 1 e j φ 2 ⋮ e j φ k − 1, φ m = 2 π m − 1 * d * sin α λ wherein, W GOB is the phase weighting coefficient, m denotes an m th second pilot antenna port used to form a first pilot antenna port, λ denotes a wavelength of an optical wave, k denotes a total quantity of first pilot antenna ports, α is an angle of arrival of a beam from the base station at the physical antenna of the user equipment and d is a distance between two neighboring physical antennas of the user equipment.
Motor vehicle, in particular commercial vehicle, having a vehicle frame and at least one vehicle axle which is supported via one or more links (6; 7) with respect to the vehicle frame, the link or links (6; 7) being attached to the vehicle axle via at least one joint arrangement which is connected via a connecting means to an abutment which is fixed with respect to the axle, the connecting means penetrating contact faces of the joint arrangement and the abutment which lie opposite one another in each case, and connecting them to one another, characterized in that the contact faces which are assigned to in each case one link (6; 7) lie in one plane, and in that the axis of the respective connecting means runs through the plane, in which the contact faces which are penetrated by it lie, at an angle (α) which differs from 90°.
A running gear for a working vehicle comprising at least one direction-changing wheel and a drive wheel which are guided on a support frame and which at their periphery accommodate an endless traction means, wherein the traction means is supported by way of support rollers at its surface remote from the ground over which the vehicle is travelling and wherein provided on the support frame or on a component connected thereto is a device for stripping dirt from an inner peripheral surface of the traction means that is provided with guide blocks, which device has at least one stripping element (8, 9) guided relative to the inner peripheral surface of the traction means, characterised in that the stripping element (8, 9) is at least partially elastically deformable, that provided on the stripping element (8, 9) is at least one entrainment means (10, 11) for elastic deflection and/or deformation of at least a portion of the stripping element (8, 9), and that the entrainment means (10, 11) extends in relation to the guide blocks in such a way that when the traction means circulates the entrainment means successively engages into all intermediate spaces between the guide blocks and is deflected by the guide blocks.
A method, comprising: determining solar tracking setpoints for a field of photovoltaic generators co-located with a wind turbine generator, wherein the solar tracking setpoints orient a collector face for each photovoltaic generator sunward; determining, based on data received from the wind turbine generator that an airborne impactor event is occurring, wherein the airborne impactor event is determined by detecting whether one or more of the photovoltaic generators is at risk of being struck by debris dislodged from the wind turbine generator; in response to determining that an airborne impactor event is occurring, adjusting the solar tracking setpoints to reposition the collector face at least partly out of a trajectory for airborne impactors; and transmitting the setpoints to tracking motors for the photovoltaic generators of the field. determining solar tracking setpoints for a field of photovoltaic generators co-located with a wind turbine generator, wherein the solar tracking setpoints orient a collector face for each photovoltaic generator sunward; determining, based on data received from the wind turbine generator that an airborne impactor event is occurring, wherein the airborne impactor event is determined by detecting whether one or more of the photovoltaic generators is at risk of being struck by debris dislodged from the wind turbine generator; in response to determining that an airborne impactor event is occurring, adjusting the solar tracking setpoints to reposition the collector face at least partly out of a trajectory for airborne impactors; and transmitting the setpoints to tracking motors for the photovoltaic generators of the field.