mhurhangee/ep-ind-claims huggingface dataset:
Working device, in particular an excavator or a machine for material handling, having an element movable via at least one working drive, wherein at least one energy recovery cylinder is provided for recovering energy from the movement of the movable element, which energy recovery cylinder comprises a cylinder jacket and a cylinder rod, wherein the cylinder jacket defines a chamber filled with gas, characterized in that a sealing arrangement is provided for sealing the chamber filled with gas, which is arranged at the end of the cylinder jacket and includes an annular space filled with oil, wherein, adjacent to the sealing arrangement, an annular space filled with gas exists inside the cylinder jacket between the outer surface of the cylinder rod and the inner side of the cylinder jacket, which annular space forms a part of the chamber filled with gas, wherein a communication passage for connecting the annular space filled with oil to the annular space filled with gas is provided, and wherein a check valve is arranged in the communication passage, which is aligned with the opening direction of the annular space filled with oil to the annular space filled with gas, and which allows gas to escape from the annular space filled with oil into the annular space filled with gas.
A product combination for use in treating or inhibiting androgen-dependent prostate cancer and/or inhibiting or delaying the onset of castration-resistant prostate cancer (CRPC) in a subject, wherein the product combination comprises: a first compound that is dutasteride (5a, 17β)-N-{2,5 bis(trifluoromethyl) phenyl}-3-oxo-4-azaandrost-1-ene-17-carboxamide); and a second compound of Formula or a pharmaceutically acceptable salt of Formula: wherein: R 1 is methyl; R 2 is hydrogen; R 3 is -OH; R 4 is hydrogen; R 5 is hydrogen; and R 6 is hydrogen. a first compound that is dutasteride (5a, 17β)-N-{2,5 bis(trifluoromethyl) phenyl}-3-oxo-4-azaandrost-1-ene-17-carboxamide); and a second compound of Formula or a pharmaceutically acceptable salt of Formula: wherein: R 1 is methyl; R 2 is hydrogen; R 3 is -OH; R 4 is hydrogen; R 5 is hydrogen; and R 6 is hydrogen. R 1 is methyl; R 2 is hydrogen; R 3 is -OH; R 4 is hydrogen; R 5 is hydrogen; and R 6 is hydrogen.
A method of organizing prefibrillar solution into an organized array of fibrils comprising: providing a collagen and/or elastin solution, wherein the collagen and/or elastin are prefibrils; and creating a fluid flow through the prefibrillar solution by hyperbolic contraction of the solution, that produces a controlled extensional strain and shear strain to the collagen and/or elastin prefibrils, wherein the extensional and shear strain are sufficient to induce the prefibrils to assemble into an organized array of fibrils. providing a collagen and/or elastin solution, wherein the collagen and/or elastin are prefibrils; and creating a fluid flow through the prefibrillar solution by hyperbolic contraction of the solution, that produces a controlled extensional strain and shear strain to the collagen and/or elastin prefibrils, wherein the extensional and shear strain are sufficient to induce the prefibrils to assemble into an organized array of fibrils.
A hand-held power tool comprising: a housing having a primary handle mounting surface and a secondary handle mounting feature consisting of a pair of bores disposed on opposite sides (46, 48) of the housing; a motor disposed in the housing; a drive spindle disposed in the housing and coupled to the motor; a primary handle fixedly coupled to the primary handle mounting surface; a first secondary handle having a pair of spaced apart legs (108, 110) operable to be selectively attached to the opposite sides (46, 48) of the housing using the pair of bores, the first secondary handle being a bail handle; and a second secondary handle having a single attachment feature operable to selectively attach the second secondary handle to the housing using either one of the bores, characterized by: the second secondary handle being a side handle; and the power tool further comprising a pair of adaptors engaging with the pair of bores, the adaptors selectively attaching the bail handle and the side handle to the housing; wherein the single attachment feature of the side handle can engage with either one of the bores and the adaptors to selectively attach the side handle to the housing. a housing having a primary handle mounting surface and a secondary handle mounting feature consisting of a pair of bores disposed on opposite sides (46, 48) of the housing; a motor disposed in the housing; a drive spindle disposed in the housing and coupled to the motor; a primary handle fixedly coupled to the primary handle mounting surface; a first secondary handle having a pair of spaced apart legs (108, 110) operable to be selectively attached to the opposite sides (46, 48) of the housing using the pair of bores, the first secondary handle being a bail handle; and a second secondary handle having a single attachment feature operable to selectively attach the second secondary handle to the housing using either one of the bores, characterized by: the second secondary handle being a side handle; and the power tool further comprising a pair of adaptors engaging with the pair of bores, the adaptors selectively attaching the bail handle and the side handle to the housing; wherein the single attachment feature of the side handle can engage with either one of the bores and the adaptors to selectively attach the side handle to the housing. the second secondary handle being a side handle; and the power tool further comprising a pair of adaptors engaging with the pair of bores, the adaptors selectively attaching the bail handle and the side handle to the housing; wherein the single attachment feature of the side handle can engage with either one of the bores and the adaptors to selectively attach the side handle to the housing.
Method for managing the electricity consumption of a plurality of domestic equipments (D1,..Dn) connected within a local area communication network, the operation of at least two domestic equipments having one or more operating phases, said method comprising the following steps implemented by a data processing module able to be connected to the local area communication network: - acquiring (E6, E13) information relating to current or upcoming operating phases for at least two domestic equipments, the information relating to an operating phase for a domestic equipment comprising the power consumed by said domestic equipment during this phase, said method being characterized by the following steps implemented by the data processing module: - on the basis of the acquired information, determining at least one operating phase of one of said equipments to be interrupted so as to draw a compromise between reducing the total maximum power consumed by said at least two domestic equipments, called consumption peak, and shifting the operating phases of the domestic equipments in time so as to minimize the duration of the interruption of the operating phases of the domestic equipments, - interrupting (Ell, E12) said determined operating phase. - acquiring (E6, E13) information relating to current or upcoming operating phases for at least two domestic equipments, - on the basis of the acquired information, determining at least one operating phase of one of said equipments to be interrupted so as to draw a compromise between reducing the total maximum power consumed by said at least two domestic equipments, called consumption peak, and shifting the operating phases of the domestic equipments in time so as to minimize the duration of the interruption of the operating phases of the domestic equipments, - interrupting (Ell, E12) said determined operating phase.
A method of screening a plurality of sample fluids for molecules which can bind to predefined ligands, using an assembly comprising, a sample delivery unit which can receive sample fluids to be screened, and a plurality of groups of flow cells (31,32), each group having at least two flow cells (3a-d), each group comprising at least one flow cell (3a-d) with a first type of ligand and another flow cell (3a-d) which serves as a reference flow cell, and a means for selectively fluidly connecting the sample delivery unit to any one of said groups of flow cells (31,32), the method comprising the steps of, selecting one of said plurality of flow cell groups (31,32) by fluidly connecting said flow cell group (31,32) to the sample delivery unit; carrying out an injection step which comprises injecting a sample fluid to be screened from the sample delivery unit into the flow cells (3a-d) in the selected flow cell group (31,32); for each flow cell (3a-d) in the selected flow cell group (31,32), recording a signal which is output from a sensor, wherein said signal represents the binding of molecules of the sample fluid to ligands on the test surface of that flow cell (3a-d) and/or the dissociation of molecules from ligands on the test surface of that flow cell (3a-d); characterized in that the method further comprises the steps of, carrying out a damage assessment step, using said recorded signals, to determine if the test surface of a flow cell (3a-d) in the selected flow cell group (31,32) is damaged; if it is determined from the damage assessment step that the test surface of a flow cell (3a-d) in the selected flow cell group (31,32) is damaged, then selecting another one of said plurality of flow cell groups (31,32) by fluidly connecting said other flow cell group (31,32) to the delivery unit. selecting one of said plurality of flow cell groups (31,32) by fluidly connecting said flow cell group (31,32) to the sample delivery unit; carrying out an injection step which comprises injecting a sample fluid to be screened from the sample delivery unit into the flow cells (3a-d) in the selected flow cell group (31,32); for each flow cell (3a-d) in the selected flow cell group (31,32), recording a signal which is output from a sensor, wherein said signal represents the binding of molecules of the sample fluid to ligands on the test surface of that flow cell (3a-d) and/or the dissociation of molecules from ligands on the test surface of that flow cell (3a-d); characterized in that the method further comprises the steps of, carrying out a damage assessment step, using said recorded signals, to determine if the test surface of a flow cell (3a-d) in the selected flow cell group (31,32) is damaged; if it is determined from the damage assessment step that the test surface of a flow cell (3a-d) in the selected flow cell group (31,32) is damaged, then selecting another one of said plurality of flow cell groups (31,32) by fluidly connecting said other flow cell group (31,32) to the delivery unit.
A display apparatus having a pixel group, the pixel group comprising at least a first pixel comprising a first sub-region and a second sub-region; a second pixel comprising a third sub-region and a fourth sub-region; and a third pixel comprising a fifth sub-region and a sixth sub-region, wherein the at least first, second, and third pixels (PX1, PX2, PX3) are sequentially arranged in a first direction, at least two sub-regions of the first, third, and fifth sub-regions (PR1, PR2, PR3) have different widths in the first direction, the second, fourth, and sixth sub-regions (DR1, DR2, DR3) are sequentially arranged in the first direction, and at least one sub-region of the second, fourth, and sixth sub-regions (DR1, DR2, DR3) expands toward an adjacent sub-region (DR1, DR2, DR3) in the first direction and has a width greater than a width of the other sub-regions of the second, fourth, and sixth sub-regions (DR1, DR2, DR3) in the same pixel group; wherein the first, third, and fifth sub-regions (PR1, PR2, PR3) comprise a pixel electrode and the second, fourth, and sixth sub-regions (DR1, DR2, DR3) comprise a driving device to drive the pixel electrode; characterized in that among the first, second, and third pixels (PX1, PX2, PX3), the largest pixel (PX1, PX2, PX3) has a recessed portion, and at least one sub-region of the second, fourth, and sixth sub-regions (DR1, DR2, DR3) expands into the recessed portion.
A resin composition comprising 100 parts by weight of a polyarylene sulfide resin (component A), obtained by directly heating and polymerizing a diiodoaryl compound, solid sulfur and an aromatic disulfide-based compound without using a polar solvent and by using an aromatic disulfide-based compound as a polymerization terminator, and 15 to 180 parts by weight of carbon fibers (component B), or 10 to 150 parts by weight of the wholly aromatic polyamide fibers (component C), each based on 100 parts by weight of the component A.
Method for producing a lamella for a plate heat exchanger, said method comprising the following steps: a) providing a corrugated structure from a formed metal sheet, in particular a bend-formed metal sheet, having at least one wave crest having wave flanks, wherein the wave crest and the wave flanks are in each case connected by way of a metal-sheet edge, and wherein the metal-sheet edge has an internal radius and an external radius, characterized by b) compression-forming, preferably cold-extruding, the at least one wave crest having wave flanks of the corrugated structure from step a) in such a manner that the external radius of the metal-sheet edges between the wave crest and the respective wave flank is reduced. a) providing a corrugated structure from a formed metal sheet, in particular a bend-formed metal sheet, having at least one wave crest having wave flanks, wherein the wave crest and the wave flanks are in each case connected by way of a metal-sheet edge, and wherein the metal-sheet edge has an internal radius and an external radius, characterized by b) compression-forming, preferably cold-extruding, the at least one wave crest having wave flanks of the corrugated structure from step a) in such a manner that the external radius of the metal-sheet edges between the wave crest and the respective wave flank is reduced.
A method of curing a polymeric form, the method comprising the steps of: arranging an uncured polymeric form along a base member, the base member being at least semi-rigid at least when in a curing configuration; arranging a thermal expansion member in close relation to the uncured polymeric form and either on a side of the uncured polymeric form opposite the base member or between the uncured polymeric form and the base member; arranging a constraining member relative to the base member such that the thermal expansion member and the uncured polymeric form are both positioned between the constraining member and the base member, the constraining member maintaining a constant position in relation to the base member with the constraining member being at least semi-rigid at least when in a curing configuration; heating the thermal expansion member to expand the thermal expansion member in size into an expanded state, where in the expanded state the thermal expansion member applies pressure to the uncured polymeric form with both the base member and the constraining member being in an at least semi-rigid curing configuration; maintaining expansion of the thermal expansion member in the expanded state to maintain the application of pressure to the uncured polymeric form while the uncured polymeric form is being cured to form a cured polymeric form; curing the uncured polymeric form to form the cured polymeric form; and separating the cured polymeric form and the thermal expansion member. arranging an uncured polymeric form along a base member, the base member being at least semi-rigid at least when in a curing configuration; arranging a thermal expansion member in close relation to the uncured polymeric form and either on a side of the uncured polymeric form opposite the base member or between the uncured polymeric form and the base member; arranging a constraining member relative to the base member such that the thermal expansion member and the uncured polymeric form are both positioned between the constraining member and the base member, the constraining member maintaining a constant position in relation to the base member with the constraining member being at least semi-rigid at least when in a curing configuration; heating the thermal expansion member to expand the thermal expansion member in size into an expanded state, where in the expanded state the thermal expansion member applies pressure to the uncured polymeric form with both the base member and the constraining member being in an at least semi-rigid curing configuration; maintaining expansion of the thermal expansion member in the expanded state to maintain the application of pressure to the uncured polymeric form while the uncured polymeric form is being cured to form a cured polymeric form; curing the uncured polymeric form to form the cured polymeric form; and separating the cured polymeric form and the thermal expansion member.
A polyethylene resin expanded particle having an expansion ratio of not less than 10 times and not more than 50 times, in a DSC curve obtained by differential scanning calorimetry, the polyethylene resin expanded particle (i) showing two melting peaks, the two melting peaks being a low-temperature side melting peak and a high-temperature side melting peak, and (ii) further having a shoulder in a region not less than 100°C and not more than the low-temperature side melting peak temperature, the shoulder having a heat quantity (Qs) which is not less than 0.2% and not more than 3% of a low-temperature side melting peak heat quantity (Ql), wherein the polyethylene resin contains at least a linear low-density polyethylene resin, the polyethylene resin expanded particle comprising, in not less than 0.05 part by weight and not more than 2 parts by weight with respect to 100 parts by weight of a polyethylene resin, at least one kind selected from glycerin, polyethylene glycol, and glycerin esters of fatty acids having not less than 10 and not more than 25 carbon atoms, wherein the expansion ratio, the melting peaks, the shoulder in a region not less than 100°C and not more than the low-temperature side melting peak temperature, the low-temperature side melting peak heat quantity (Ql) and the heat quantity (Qs) of the shoulder are determined in accordance with the experimental section of the description, the polyethylene resin expanded particle being obtained through at least two expansion steps, and the at least two expansion steps including: obtaining the polyethylene resin expanded particle by expanding a polyethylene resin particle; and further expanding the obtained polyethylene resin expanded particle by impregnating the polyethylene resin expanded particle with an inorganic gas and applying an internal pressure, and thereafter causing the polyethylene resin expanded particle to be in contact with water vapor having a pressure (gauge pressure) of not less than 0.045 MPa and not more than 0.15 MPa.
An industrial truck, comprising opposing masts (9, 10) for lifting and lowering a loading platform located between the masts in a lifting and lowering direction, wherein each mast (9, 10) comprises two pulleys (13, 14), which are spaced apart in the lifting and lowering direction, and around which a flexible pulling means revolves, wherein at least one of the pulleys (13, 14) can be rotationally driven by a drive device, wherein at least one of the two pulleys (13, 14) of each mast (9, 10) is mounted in a bearing block, which, shiftable in a tensioning direction, is arranged in a bearing block reception of the respective mast (9, 10). comprising opposing masts (9, 10) for lifting and lowering a loading platform located between the masts in a lifting and lowering direction, wherein each mast (9, 10) comprises two pulleys (13, 14), which are spaced apart in the lifting and lowering direction, and around which a flexible pulling means revolves, wherein at least one of the pulleys (13, 14) can be rotationally driven by a drive device, wherein at least one of the two pulleys (13, 14) of each mast (9, 10) is mounted in a bearing block, which, shiftable in a tensioning direction, is arranged in a bearing block reception of the respective mast (9, 10).
A method of coating a folded catheter balloon, the method comprising: providing a pressure chamber having a coating solution contained therein, wherein the coating solution comprises a therapeutic agent; placing the folded balloon catheter into the coating solution in the pressure chamber, applying a pressure and/or vacuum to force the coating into the folds of the balloon, releasing the pressure and/or vacuum, and removing the folded and coated catheter balloon from the chamber. providing a pressure chamber having a coating solution contained therein, wherein the coating solution comprises a therapeutic agent; placing the folded balloon catheter into the coating solution in the pressure chamber, applying a pressure and/or vacuum to force the coating into the folds of the balloon, releasing the pressure and/or vacuum, and removing the folded and coated catheter balloon from the chamber.
A drug conjugate selected from BT17BDC-27: or BT17BDC-28: wherein Bicycle 17-69-07-N268 represents -AC i (D-Ala)NE (D-Ala)C ii EDFYD(tBuGly)C iii -CONH 2 and Bicycle 17-69-07-N241 represents -(bAla)-Sar10-ACi(D-Ala)NE (D-Ala)C ii EDFYD(tBuGly)C iii -CONH 2, both of which are cyclised on C i, C ii, and C iii with 1,3,5-tris(bromomethyl)benzene) (TBMB) yielding a tri-substituted 1,3,5-trismethylbenzene structure.
A multi-functional adsorbent for jet fuel, comprising: a 2-dimensional or 3-dimensional interconnected mesoporous or mixed micro-/mesoporous framework; and a plurality of internal cavities formed in the mesoporous or mixed micro/mesoporous framework, wherein the internal cavities include positively charged sites, negatively charged sites or combinations thereof, the mesoporous or mixed micro-/mesoporous framework includes a polynuclear cluster, and the polynuclear cluster is an Al 13 cluster, preferably {[Al 13 O 4 24 (H 2 O) 12] 7+ •nCl -} (7-n)+, a polyoxometalate ([X +n M 12 O 40] (8-n)- •mH +} (8-n-m)- or combinations thereof, wherein X is Si 4+ and M is a transition metal atom from groups V-VI. a 2-dimensional or 3-dimensional interconnected mesoporous or mixed micro-/mesoporous framework; and a plurality of internal cavities formed in the mesoporous or mixed micro/mesoporous framework, wherein the internal cavities include positively charged sites, negatively charged sites or combinations thereof, the mesoporous or mixed micro-/mesoporous framework includes a polynuclear cluster, and the polynuclear cluster is an Al 13 cluster, preferably {[Al 13 O 4 24 (H 2 O) 12] 7+ •nCl -} (7-n)+, a polyoxometalate ([X +n M 12 O 40] (8-n)- •mH +} (8-n-m)- or combinations thereof, wherein X is Si 4+ and M is a transition metal atom from groups V-VI.
Gas turbine compressor comprising a guide vane, an in particular downstream moving vane and a bleed channel, which comprises an upstream channel wall (3.1) that transitions into an annular chamber, an axially opposite downstream channel wall (3.2) comprising an in particular rounded inlet edge (3.3), and a bleed channel outlet, the upstream channel wall and a rotational axis of the compressor forming, in the meridian section, a first angle (α) that increases in the direction of flow (x); and the upstream channel wall and the rotational axis forming, in the meridian section, a second angle (β) that increases in the direction of flow characterized in that the upstream channel wall is arranged upstream of a trailing edge (1.1) of the guide vane; and the second angle increases more in the direction of flow than the first angle.
A method of plastic film coreless roll removal from a spindle, comprising pushing of the plastic film coreless roll from the spindle with a perforated wall, said method being characterized in that pressurized air-water mixture is fed at pushing the roll, providing expansion of the inner diameter of the roll.