mhurhangee/ep-ind-claims huggingface dataset:
A curable formulation comprising: a mono-functional curable material, in an amount of from 50 to 89 weight percents, of the total weight of the formulation; a non-curable polymeric material, in an amount ranging from 10 to 49 weight percents, of the total weight of the formulation; and a multi-functional curable material, in an amount ranging from 1 to 10 weight percents, of the total weight of the formulation; wherein: (i) said non-curable polymeric material features a molecular weight of at least 1000, or at least 1500 or at least 2000 Daltons; and/or (ii) said non-curable polymeric material features a Tg lower than 0, or lower than -10, or lower than -20, °C; and/or (iii) at least 80 weight percents of the total amount of said mono-functional and said multi-functional curable materials include curable materials featuring, when hardened, a Tg lower than 0, or lower than -10, or lower than -20, °C, the formulation featuring, when hardened, a Shore A hardness lower than 10 or a Shore 00 hardness lower than 40. a mono-functional curable material, in an amount of from 50 to 89 weight percents, of the total weight of the formulation; a non-curable polymeric material, in an amount ranging from 10 to 49 weight percents, of the total weight of the formulation; and a multi-functional curable material, in an amount ranging from 1 to 10 weight percents, of the total weight of the formulation; wherein: (i) said non-curable polymeric material features a molecular weight of at least 1000, or at least 1500 or at least 2000 Daltons; and/or (ii) said non-curable polymeric material features a Tg lower than 0, or lower than -10, or lower than -20, °C; and/or (iii) at least 80 weight percents of the total amount of said mono-functional and said multi-functional curable materials include curable materials featuring, when hardened, a Tg lower than 0, or lower than -10, or lower than -20, °C, (i) said non-curable polymeric material features a molecular weight of at least 1000, or at least 1500 or at least 2000 Daltons; and/or (ii) said non-curable polymeric material features a Tg lower than 0, or lower than -10, or lower than -20, °C; and/or (iii) at least 80 weight percents of the total amount of said mono-functional and said multi-functional curable materials include curable materials featuring, when hardened, a Tg lower than 0, or lower than -10, or lower than -20, °C, the formulation featuring, when hardened, a Shore A hardness lower than 10 or a Shore 00 hardness lower than 40.
A display panel comprising: a first substrate and a second substrate opposing the first substrate; a plurality of first stopper layers located on the first substrate between the first and the second substrate and spaced apart from each other with a space therebetween; a plurality of column spacers (182, 184) located on the second substrate between the first and the second substrate, the column spacers (182, 184) being opposite to the space between two adjacent first stopper layers on the first substrate; a plurality of touch sensing lines on the first substrate between the first and the second substrate, the touch sensing lines being connected to touch sensing electrodes which are located on the first substrate; and a plurality of pixels in a matrix form, each pixel comprising first to third sub-pixel areas (R, G, B) adjacent in this order in its pixel area; a lower alignment film covering the first stopper layers, the touch sensing lines, the space between and the pixel areas; wherein the first stopper layers are located between adjacent first and third sub-pixel areas (R, B), and wherein the touch sensing lines are located between adjacent first and second sub-pixel areas (R, G), such that the touch sensing lines and the first stopper layers prevent the column spacers (182, 184) from moving to the lower alignment film in the pixel areas. a first substrate and a second substrate opposing the first substrate; a plurality of first stopper layers located on the first substrate between the first and the second substrate and spaced apart from each other with a space therebetween; a plurality of column spacers (182, 184) located on the second substrate between the first and the second substrate, the column spacers (182, 184) being opposite to the space between two adjacent first stopper layers on the first substrate; a plurality of touch sensing lines on the first substrate between the first and the second substrate, the touch sensing lines being connected to touch sensing electrodes which are located on the first substrate; and a plurality of pixels in a matrix form, each pixel comprising first to third sub-pixel areas (R, G, B) adjacent in this order in its pixel area; a lower alignment film covering the first stopper layers, the touch sensing lines, the space between and the pixel areas; wherein the first stopper layers are located between adjacent first and third sub-pixel areas (R, B), and wherein the touch sensing lines are located between adjacent first and second sub-pixel areas (R, G), such that the touch sensing lines and the first stopper layers prevent the column spacers (182, 184) from moving to the lower alignment film in the pixel areas.
A disposable cell separation set comprising a blood processing chamber adapted to be mounted on a rotor of a centrifugal blood separation apparatus; a generally frustro-conical cell separation chamber in fluid communication with said blood processing chamber; the cell separation chamber having an inlet and an outlet, said inlet being connected to said blood processing chamber, and characterized by: an internal gravity valve mounted within said separation chamber, said gravity valve having a proximal outlet (281, 285) and a distal outlet and being configured to close and open the proximal outlet (281, 285) and the distal outlet in response to a selected speed of said rotor. an internal gravity valve mounted within said separation chamber, said gravity valve having a proximal outlet (281, 285) and a distal outlet and being configured to close and open the proximal outlet (281, 285) and the distal outlet in response to a selected speed of said rotor.
A method of making a shelf stable pasta product comprising the steps of: A) blanching a pasta in acidified water; B) draining the pasta; C) rinsing the pasta; D) cooling the pasta; E) packaging the pasta in a sealed container; and F) thermal processing the sealed container containing the pasta; and. with the proviso that the pasta product does not have a pH ≤ 4.5; and wherein the acidified water uses acids at concentration of at least 0.05 % w/w and is selected from the group comprising lemon juice, lemon juice concentrate, distilled vinegar, acetic acid, or combinations thereof; and wherein the pasta contains no added acidulants, no added stabilizers, no added enzymes. A) blanching a pasta in acidified water; B) draining the pasta; C) rinsing the pasta; D) cooling the pasta; E) packaging the pasta in a sealed container; and F) thermal processing the sealed container containing the pasta; and.
Actuator device having a drive unit and an output unit, the output unit having a first translation unit with a first output and a second translation unit with a second output, which second translation unit is connected fluidically to the first translation unit via a line system, the drive unit being connected fluidically to the line system, and it being possible for a fluid to be exchanged by means of the drive unit between the first translation unit and the second translation unit in order to deflect the outputs (7, 8), the first translation unit and the second translation unit having in each case one prestressing element (12, 25), characterized in that the prestressing elements (12, 25) are supported in opposite directions against a movably mounted common clamping means.
Oven (10, 110, 210) for cooking food products comprising an external casing internally having a cooking chamber delimited by lateral walls (13, 14), by an upper wall and a bottom wall and having a front entrance aperture, wherein said oven comprises: - an internal casing disposed in said cooking chamber supported with respect to said bottom wall so as to define a lower interspace (22, 122) communicating with at least one lateral interspace (23, 24, 123, 124) given by the distancing between at least one lateral wall (19, 20) of said internal casing and said one lateral wall (13, 14), wherein said lateral walls (19,20) comprise upper edges distanced from said upper wall defining at least one upper communication passage (25, 26, 125, 126) between said at least one lateral interspace (23, 24, 123, 124) and the inside of said internal casing; - transport means positioned in said internal casing and provided with a plurality of shelves for supporting said food products, able to advance in a working direction, - at least one combustion chamber (31, 130, 131), provided with a heat generating source, disposed under a horizontal lying plane of said bottom wall and having an aperture for the outlet of the combustion fumes in direct communication with said lower interspace (22, 122); - suction means having suction mouths disposed inside the bulk of said internal casing and configured to cause a forced drawing of said combustion fumes along at least one path (P, P1, P2) which develops from said outlet aperture to said at least one upper passage (25, 26 125, 126), entering inside said internal casing according to a direction transverse to said working direction. - an internal casing disposed in said cooking chamber supported with respect to said bottom wall so as to define a lower interspace (22, 122) communicating with at least one lateral interspace (23, 24, 123, 124) given by the distancing between at least one lateral wall (19, 20) of said internal casing and said one lateral wall (13, 14), wherein said lateral walls (19,20) comprise upper edges distanced from said upper wall defining at least one upper communication passage (25, 26, 125, 126) between said at least one lateral interspace (23, 24, 123, 124) and the inside of said internal casing; - transport means positioned in said internal casing and provided with a plurality of shelves for supporting said food products, able to advance in a working direction, - at least one combustion chamber (31, 130, 131), provided with a heat generating source, disposed under a horizontal lying plane of said bottom wall and having an aperture for the outlet of the combustion fumes in direct communication with said lower interspace (22, 122); - suction means having suction mouths disposed inside the bulk of said internal casing and configured to cause a forced drawing of said combustion fumes along at least one path (P, P1, P2) which develops from said outlet aperture to said at least one upper passage (25, 26 125, 126), entering inside said internal casing according to a direction transverse to said working direction.
A fuel cell gas diffusion layer comprising: a first layer including a porous member containing electrically-conductive particles and polymeric resin as major components, the porous member of the first layer and the second layer not containing carbon fiber as a base material and having a self-supporting body structure constituted only by the electrically-conductive particles and the polymeric resin, a second layer including a porous member containing electrically-conductive particles and the polymeric resin as major components, formed so as to contact the first layer, and having higher water repellency than the first layer, wherein a plurality of holes (12, 16) extending from a main surface of the fuel cell gas diffusion layer are formed so as to penetrate the first layer and the second layer or a plurality of holes extending from a main surface of the fuel cell gas diffusion layer are formed so as to penetrate the first layer and so as not to penetrate the second layer. a first layer including a porous member containing electrically-conductive particles and polymeric resin as major components, the porous member of the first layer and the second layer not containing carbon fiber as a base material and having a self-supporting body structure constituted only by the electrically-conductive particles and the polymeric resin, a second layer including a porous member containing electrically-conductive particles and the polymeric resin as major components, formed so as to contact the first layer, and having higher water repellency than the first layer, wherein a plurality of holes (12, 16) extending from a main surface of the fuel cell gas diffusion layer are formed so as to penetrate the first layer and the second layer or a plurality of holes extending from a main surface of the fuel cell gas diffusion layer are formed so as to penetrate the first layer and so as not to penetrate the second layer.
method for preparing 3'-PEG-CPG of the following structural formula IV, the method comprising: 1) reacting CPG with 3-aminopropyltriethoxysilane to form long chain alkyl amine controlled pore glass (LCAA-CPG); 2) reacting polyethylene glycol with 4,4'-dimethoxytrityl chloride to form 2-[bis-(4-dimethoxytrityl)poly(ethylene glycol)]; 3) reacting the compound formed in the step 2) with a compound of the following formula 1 to form a compound of the following structural formula I; 4) reacting the formed compound of the following structural formula I with 4-nitrophenylchloroformate to form a compound of the following structural formula II; 5) reacting the compound of the following structural formula I formed In the step 3) with N-succinimidyl trifluoroacetic acid to form a compound of the following structural formula III; and 6) reacting the LCAA-CPG compound formed In the step 1) with the compounds of the following structural formulas I, II, or III respectively formed in the steps 3) to 5), respectively. wherein, R is alkyl, alkenyl, alkynyl, aryl, arylalkyl, heteroalkyl, or heteroaryl; and n is an integer of no less than 5 and no more than 120. 1) reacting CPG with 3-aminopropyltriethoxysilane to form long chain alkyl amine controlled pore glass (LCAA-CPG); 2) reacting polyethylene glycol with 4,4'-dimethoxytrityl chloride to form 2-[bis-(4-dimethoxytrityl)poly(ethylene glycol)]; 3) reacting the compound formed in the step 2) with a compound of the following formula 1 to form a compound of the following structural formula I; 4) reacting the formed compound of the following structural formula I with 4-nitrophenylchloroformate to form a compound of the following structural formula II; 5) reacting the compound of the following structural formula I formed In the step 3) with N-succinimidyl trifluoroacetic acid to form a compound of the following structural formula III; and 6) reacting the LCAA-CPG compound formed In the step 1) with the compounds of the following structural formulas I, II, or III respectively formed in the steps 3) to 5), respectively. wherein, R is alkyl, alkenyl, alkynyl, aryl, arylalkyl, heteroalkyl, or heteroaryl; and n is an integer of no less than 5 and no more than 120.
Positioning system of a vehicle equipped with an electrical energy storage means in a predetermined recharging position with respect to a pad on the ground of a recharging station, wherein the pad is electrically connected to a source of electrical power, and the vehicle carrying a shoe gear connected electrically to the electrical energy storage means and which, once the vehicle is in the predetermined recharging position, is moved to come into electrical contact with the pad, comprising: - on one side among a ground side and an onboard side, a generation module of a magnetic field, a characteristic quantity of which is a function of the position with respect to a reference point of the generation module; - on the other side, a measuring module of the magnetic field, designed to measure the characteristic quantity and compare it with a reference value (B Ref), in order to control the movement of the vehicle and stop it at a predetermined relative position with respect to the reference point, wherein the predetermined relative position corresponds to the predetermined recharging position, characterized in that the generation module of a magnetic field comprises a current loop that is arranged substantially horizontally, and is traversed by an induction current that is designed to generate the magnetic field, wherein the reference point is the geometric center of the loop, and in that the generation module of a magnetic field comprises a current loop comprises a central loop and a plurality of peripheral loops, and wherein the flow direction of the induction current in the central loop is opposed to the flow direction of the induction current in the peripheral loops. - on one side among a ground side and an onboard side, a generation module of a magnetic field, a characteristic quantity of which is a function of the position with respect to a reference point of the generation module; - on the other side, a measuring module of the magnetic field, designed to measure the characteristic quantity and compare it with a reference value (B Ref), in order to control the movement of the vehicle and stop it at a predetermined relative position with respect to the reference point, wherein the predetermined relative position corresponds to the predetermined recharging position,
Use of a liquid composition, comprising at least one anti-stripping agent for bitumen in solution in a solvent comprising a diol or a triol, as anti-stripping agent for bitumen, where: the anti-stripping agent is selected from: • phosph(on)ate esters, such as: ∘ alkyl esters of phosphonic acid, for example C6-C18 alkyl esters, preferably monoalkyl esters; ∘ alkyl esters of alkylphosphonic acids, where the alkyl chain may optionally be ethoxylated and/or propoxylated, such as (C1-C4)alkyl esters of (C6-C18)alkylphosphonic acids, preferably monoalkyl esters; ∘ alkyl phosphates, preferably monoalkyl phosphates; • phosphonic acids, in particular alkylphosphonic acids, especially alkylphosphonic acids where the alkyl group comprises from 6 to 18, especially from 8 to 12, carbon atoms; and • mixtures of two or more of these compounds, and where the anti-stripping agent is an anti-stripping agent that would be in solid form in the isolated state. the anti-stripping agent is selected from: • phosph(on)ate esters, such as: ∘ alkyl esters of phosphonic acid, for example C6-C18 alkyl esters, preferably monoalkyl esters; ∘ alkyl esters of alkylphosphonic acids, where the alkyl chain may optionally be ethoxylated and/or propoxylated, such as (C1-C4)alkyl esters of (C6-C18)alkylphosphonic acids, preferably monoalkyl esters; ∘ alkyl phosphates, preferably monoalkyl phosphates; • phosphonic acids, in particular alkylphosphonic acids, especially alkylphosphonic acids where the alkyl group comprises from 6 to 18, especially from 8 to 12, carbon atoms; and • mixtures of two or more of these compounds, • phosph(on)ate esters, such as: ∘ alkyl esters of phosphonic acid, for example C6-C18 alkyl esters, preferably monoalkyl esters; ∘ alkyl esters of alkylphosphonic acids, where the alkyl chain may optionally be ethoxylated and/or propoxylated, such as (C1-C4)alkyl esters of (C6-C18)alkylphosphonic acids, preferably monoalkyl esters; ∘ alkyl phosphates, preferably monoalkyl phosphates; ∘ alkyl esters of phosphonic acid, for example C6-C18 alkyl esters, preferably monoalkyl esters; ∘ alkyl esters of alkylphosphonic acids, where the alkyl chain may optionally be ethoxylated and/or propoxylated, such as (C1-C4)alkyl esters of (C6-C18)alkylphosphonic acids, preferably monoalkyl esters; ∘ alkyl phosphates, preferably monoalkyl phosphates; • phosphonic acids, in particular alkylphosphonic acids, especially alkylphosphonic acids where the alkyl group comprises from 6 to 18, especially from 8 to 12, carbon atoms; • mixtures of two or more of these compounds, and where the anti-stripping agent is an anti-stripping agent that would be in solid form in the isolated state.
A dry powder inhalation composition comprising, - at least one muscarinic receptor antagonist or a pharmaceutically acceptable salt thereof, - fine particle lactose in the ratio of 1-20% by weight of said composition and having particle size in the range of 4 - 10 μm and coarse particle sorbitol in the ratio of 80-99% by weight of said composition and having particle size in the range of 50 - 120 μm. - at least one muscarinic receptor antagonist or a pharmaceutically acceptable salt thereof, - fine particle lactose in the ratio of 1-20% by weight of said composition and having particle size in the range of 4 - 10 μm and coarse particle sorbitol in the ratio of 80-99% by weight of said composition and having particle size in the range of 50 - 120 μm.
Device having more than one rotatable wheel (301a-d), at least one light source and more than one polarization sensor, the wheels being at least partially transparent and polarization-maintaining, parts of the wheels being configured as pole filters (302a-d), the wheels at least partially overlapping, it being possible for light which exits the light source to be polarized by the pole filters of the wheels and to be received by the polarization sensors, it being possible for the light to penetrate a plurality of wheels, and the light which is received by a polarization sensor being polarized by just one of the pole filters.
A refrigeration unit comprising: a refrigeration circuit including a compressor and a suction tube connected to an inlet of the compressor; a mounting plate having a first surface and a second, opposite surface, a clearance being defined between the compressor and the second surface, wherein a portion of the suction tube is arranged within the clearance; a power electronics device thermally coupled to the first surface of the mounting plate; a heat sink having a first end thermally and mechanically coupled to the second surface of the mounting plate and having a second end thermally and mechanically coupled to the portion of the suction tube arranged within the clearance, wherein the heat sink is configured to transfer waste heat from the mounting plate to the suction tube. a refrigeration circuit including a compressor and a suction tube connected to an inlet of the compressor; a mounting plate having a first surface and a second, opposite surface, a clearance being defined between the compressor and the second surface, wherein a portion of the suction tube is arranged within the clearance; a power electronics device thermally coupled to the first surface of the mounting plate; a heat sink having a first end thermally and mechanically coupled to the second surface of the mounting plate and having a second end thermally and mechanically coupled to the portion of the suction tube arranged within the clearance, wherein the heat sink is configured to transfer waste heat from the mounting plate to the suction tube.
A battery cell storage apparatus, comprising: - a plurality of sheet-form middle plates that are aligned so as to allow storage of flat cells therebetween; - a plurality of middle plate holding members that are aligned along the direction of alignment of the middle plates and hold each of the middle plates in a direction that is perpendicular to the alignment direction, wherein each of the plurality of middle plate holding members is movable in the alignment direction to adjust a distance therebetween; and - a fixing member that allows the cells that have been stored between the middle plates to be fixed by being sandwiched together with the middle plates, wherein opposite sides of each middle plate are held by said middle plate holding members. - a plurality of sheet-form middle plates that are aligned so as to allow storage of flat cells therebetween; - a plurality of middle plate holding members that are aligned along the direction of alignment of the middle plates and hold each of the middle plates in a direction that is perpendicular to the alignment direction, wherein each of the plurality of middle plate holding members is movable in the alignment direction to adjust a distance therebetween; and - a fixing member that allows the cells that have been stored between the middle plates to be fixed by being sandwiched together with the middle plates,