mhurhangee/ep-ind-claims huggingface dataset:
An apple wedger, comprising: a slicer having a peripheral frame defining an interior space; a plurality of blades spanning the interior space, the plurality of blades defining a plurality of sections between the plurality of blades; and a pusher pivotally secured to the frame, the pusher being rotatable with respect to the slicer between a first position in which the pusher is adjacent the slicer and a second position in which the pusher is rotated at an angle of about 180 degrees, the pusher further having a plurality of raised projections configured to be received within the plurality of sections when the pusher is in the first position, characterized in that: the plurality of blades further comprises a central circular hub blade and a plurality of radial blades extending from the central hub to the frame; the plurality of raised projections comprises a central hub projection and a plurality of wedge-shaped projections surrounding the central hub projection, the wedge shaped projections each comprising a first end adjacent the central hub projection and a second end radially outward from the first end, the first end being taller than the second end; whereby when the pusher is rotated into the second position the slicer can be pressed fully downward onto a horizontal surface to slice the apple, the pusher being configured to be used to push at least partially sliced food items through the gaps between cutting blades when the pusher is rotated into the first position. a slicer having a peripheral frame defining an interior space; a plurality of blades spanning the interior space, the plurality of blades defining a plurality of sections between the plurality of blades; and a pusher pivotally secured to the frame, the pusher being rotatable with respect to the slicer between a first position in which the pusher is adjacent the slicer and a second position in which the pusher is rotated at an angle of about 180 degrees, the pusher further having a plurality of raised projections configured to be received within the plurality of sections when the pusher is in the first position, characterized in that: the plurality of blades further comprises a central circular hub blade and a plurality of radial blades extending from the central hub to the frame; the plurality of raised projections comprises a central hub projection and a plurality of wedge-shaped projections surrounding the central hub projection, the wedge shaped projections each comprising a first end adjacent the central hub projection and a second end radially outward from the first end, the first end being taller than the second end; whereby when the pusher is rotated into the second position the slicer can be pressed fully downward onto a horizontal surface to slice the apple, the pusher being configured to be used to push at least partially sliced food items through the gaps between cutting blades when the pusher is rotated into the first position.
A process for the preparation of 5-bromo-1,3-dichloro-2-fluoro-benzene which process comprises diazotization of 6-bromo-2,4-dichloro-3-fluoro-aniline and reduction of the resulting diazonium salt to yield 5-bromo-1,3-dichloro-2-fluoro-benzene.
A battery management system for a vehicle comprising: a charger configured to be mounted on the vehicle for charging an assembled battery including a plurality of cells with electric power from an external power source; a memory for recording which cell is a lowest cell having the lowest voltage when the assembled battery is fully charged among the plurality of cells; a cell-balancer for carrying out cell-balancing on the voltage of the assembled battery by discharging, when the charger is not charging the assembled battery, one or more cells each currently having a voltage higher than a current voltage of the lowest cell to the current voltage of the lowest cell; characterized by a calculator configured to calculate a cell capacity difference (ΔC) based on the difference between a lowest voltage and a highest voltage among voltages of the plurality of cells when the assembled battery is fully charged; and a setter configured to set an upper limit (T MAX) of cumulative time of carrying out the cell-balancing based on a consumption electric current of the cell-balancing and the cell capacity difference (ΔC) calculated by the calculator, wherein the equalization is carried out when an absolute value of an electric current charging or discharging the assembled battery is less than a criterional electric current value and the voltage difference (ΔVY) between a maximum voltage (VYMAX) of the cells and a target voltage (VTGT) is exceeding a criterional voltage difference (ΔVTH). a charger configured to be mounted on the vehicle for charging an assembled battery including a plurality of cells with electric power from an external power source; a memory for recording which cell is a lowest cell having the lowest voltage when the assembled battery is fully charged among the plurality of cells; a cell-balancer for carrying out cell-balancing on the voltage of the assembled battery by discharging, when the charger is not charging the assembled battery, one or more cells each currently having a voltage higher than a current voltage of the lowest cell to the current voltage of the lowest cell; characterized by a calculator configured to calculate a cell capacity difference (ΔC) based on the difference between a lowest voltage and a highest voltage among voltages of the plurality of cells when the assembled battery is fully charged; and a setter configured to set an upper limit (T MAX) of cumulative time of carrying out the cell-balancing based on a consumption electric current of the cell-balancing and the cell capacity difference (ΔC) calculated by the calculator, wherein the equalization is carried out when an absolute value of an electric current charging or discharging the assembled battery is less than a criterional electric current value and the voltage difference (ΔVY) between a maximum voltage (VYMAX) of the cells and a target voltage (VTGT) is exceeding a criterional voltage difference (ΔVTH).
A thermal interface device arranged to provide a thermal coupling interface (106, 206) between a heat-generating unit (102, 202) and a heat-removing unit (104, 204), comprising: a liner layer (110, 210), which has opposite first and second surfaces (218, 220), at least the first surface being a slide surface, and which is provided with multiple perforations (112, 212); and a thermal connection layer (108, 208), which is engaged with the liner layer at the second surface thereof, and which is one of elastically and inelastically deformable; wherein the thermal interface device has an idle state where the perforations are open, and an active state where the perforations are filled with a part of the thermal connection layer, wherein the thermal connection layer is arranged to be deformed by the thermal interface device being subjected to a compression force exceeding a deformation threshold, and thereby to fill the perforations. a liner layer (110, 210), which has opposite first and second surfaces (218, 220), at least the first surface being a slide surface, and which is provided with multiple perforations (112, 212); and a thermal connection layer (108, 208), which is engaged with the liner layer at the second surface thereof, and which is one of elastically and inelastically deformable; wherein the thermal interface device has an idle state where the perforations are open, and an active state where the perforations are filled with a part of the thermal connection layer, wherein the thermal connection layer is arranged to be deformed by the thermal interface device being subjected to a compression force exceeding a deformation threshold, and thereby to fill the perforations.
A container of the can type, intended to receive a product to be packaged, in particular a food item, wherein said container comprises a can body consisted of a bottom element that is continued by a side wall whose upper edge delimits an upper opening intended to receive a sealing element, wherein said can body delimits an inner packaging volume and has an inner surface at least partially consisted of tin, which is covered with a protective layer intended to resist to the chemical action of said product to be packaged, characterized in that said protective layer includes, distributed over at least a portion of its surface, a plurality of pores through each of which an opposite area (7 a) of said tin inner surface can be accessed from said container inner volume, wherein the pores of the protective layer each have a surface area comprised between 100 μm 2 and 9 mm 2.
A lubricant composition that can be washed off cold for application on a metal strip as a corrosion protection, washing and/or forming lubricant, characterized in that the composition comprises 50 wt % to 90 wt % base fluid, wherein the base fluid is a mixture of at least two base oils differing in their kinematic viscosity at 40° C, wherein the at least two base oils are selected from group I base oils and group II base oils with a kinematic viscosity at 40° C of 3 mm 2 /s to 700 mm 2 /s, wherein group III base oils and group IV base oils are not excluded, 3 wt % to 15 wt % sulfonate-based corrosion inhibitor, 1 wt % to 20 wt % ester component, 0.5 wt % to 3 wt % phosphorus carrier component, which is selected from the group comprising dialkyl hydrogenphosphite, wherein each alkyl residue of the dialkyl hydrogenphosphite is saturated or unsaturated and comprises 14 to 22 C atoms, oleyl alcohol ethoxylate phosphate, dimethyl octadecenyl phosphonate, and triaryl thiophosphate, or 1 wt % to 10 wt % sulfur carrier component, which is selected from the group comprising sulfurized hydrocarbon, sulfur-polymer from lard oil, overbased Na thiophosphonate, S ester, S ester of oleic acid methylester, aminodialkyl dithiophosphate, and ethylhexyl Zn dithiophosphate, as an extreme-pressure/antiwear additive, 1 wt % to 15 wt % emulsifier which is selected from non-ionic surfactants, anionic surfactants, or a mixture of non-ionic surfactants and/or anionic surfactants, 0.05 wt % to 1 wt % carboxylic acid component which is selected from the group consisting of carboxylic acids with 16 to 22 C atoms, dimer acids that are dicarboxylic acids produced by dimerization of unsaturated fatty acids of tall oil, and mixtures thereof, 0.05 wt % to 1 wt % aminic and/or phenolic antioxidant 0.5 wt % to 5 wt % wax and/or thickener component which is selected from the group comprising paraffinic waxes, castor oil derivatives, fatty acid derivatives that are fatty acid esters or fatty acid amides of saturated and unsaturated C16-20 fatty acids, and polymeric thickeners, the weight of each of the afore components relative to the total weight of the composition.
A stationary blade for a blade set (22; 130; 150; 170) of a hair cutting appliance, said blade set (22; 130; 150; 170) being arranged to be moved through hair in a moving direction to cut hair, said stationary blade comprising: - a first wall portion arranged to serve as a skin facing wall when in operation; - a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade; - at least one toothed leading edge (32, 34) jointly formed by the first wall portion and the second wall portion; wherein a plurality of teeth is provided at the at least one toothed leading edge (32, 34), the teeth comprising a first leg defined by the first wall portion and a second leg defined by the second wall portion; wherein the first wall portion and the second wall portion are connected at a frontal end of the at least one toothed leading edge (32, 34), thereby forming tips of the teeth; wherein the teeth are, at their second legs, tapered along at least a substantial portion of their longitudinal extension towards a bottom side of the stationary blade facing away from the skin, when in operation, in such a way that that the second legs and the first legs are arranged in a non-symmetrical fashion with respect to one another; wherein the teeth of the stationary blade are at least partially tapered towards their tips; and wherein the teeth, when viewed in a bottom view, comprise an outline that is arranged in a tapered fashion and that comprises a rounded end at the tips; and wherein the second legs of the teeth, when viewed in a longitudinal side view, comprise a tapered cross section, wherein the tapering extends from a skin facing side towards a side thereof that is facing away from the skin; and wherein the second legs of the teeth comprise, when viewed in a longitudinal side view, a cross section that is arranged in a trapezoid fashion, wherein lateral side surfaces of the second legs are inclined with respect to a vertical plane that is perpendicular to a cutting plane defined by the first wall portion. - a first wall portion arranged to serve as a skin facing wall when in operation; - a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade; - at least one toothed leading edge (32, 34) jointly formed by the first wall portion and the second wall portion;
A wheel loader comprising: an engine; a hydraulic pump driven by the engine; a work implement driven by hydraulic fluid discharged from the hydraulic pump; a travel device driven by the engine; a transmission that transmits driving power from the engine to the travel device; an accelerator operating member; an accelerator operation amount detecting unit that detects an operating amount of the accelerator operating member; a vehicle speed detecting unit that detects a vehicle speed; and a control unit configured to execute an automatic downshift for shifting a speed range of the transmission to a speed range at a lower speed than a current speed range; characterized by an acceleration detecting unit that detects acceleration of the wheel loader; wherein the control unit determines the execution of the automatic downshift on the basis of automatic downshift conditions including the fact that the operating amount of the accelerator operating member is equal to or greater than a predetermined accelerator threshold, the fact that the vehicle speed is less than a predetermined speed threshold, and the fact that the acceleration is equal to or less than a predetermined acceleration threshold. an engine; a hydraulic pump driven by the engine; a work implement driven by hydraulic fluid discharged from the hydraulic pump; a travel device driven by the engine; a transmission that transmits driving power from the engine to the travel device; an accelerator operating member; an accelerator operation amount detecting unit that detects an operating amount of the accelerator operating member; a vehicle speed detecting unit that detects a vehicle speed; and a control unit configured to execute an automatic downshift for shifting a speed range of the transmission to a speed range at a lower speed than a current speed range; characterized by an acceleration detecting unit that detects acceleration of the wheel loader; wherein the control unit determines the execution of the automatic downshift on the basis of automatic downshift conditions including the fact that the operating amount of the accelerator operating member is equal to or greater than a predetermined accelerator threshold, the fact that the vehicle speed is less than a predetermined speed threshold, and the fact that the acceleration is equal to or less than a predetermined acceleration threshold.
Method for predicting a future camshaft position ( y pred), in which a control loop or part of a control loop comprising at least one adjusting device is approximated by a transfer function and a future camshaft position ( y pred) is determined on the basis of the transfer function, wherein the predicted future camshaft position ( y pred) is determined according to the following equation y pred = A n y + ∑ i = 0 n − 1 A i B u soll wherein y pred designates the predicted camshaft position, u soll designates the target value for the camshaft position, y designates the camshaft position measured on the last flank, A and B are constants of a time-discrete state-space model of the PT1 transmission element, and n indicates the number of prediction steps.
A coaxial cable, comprising: an inner conductor; an outer conductor annularly arranged around the inner conductor; a dielectric separator arranged around at least a portion of the inner conductor so as to hold the outer conductor substantially separate from the inner conductor; and a tape layer including at least one layer of tape annularly arranged around the outer conductor, wherein the tape layer prevents the entry of air into the cable in the event of fire. an inner conductor; an outer conductor annularly arranged around the inner conductor; a dielectric separator arranged around at least a portion of the inner conductor so as to hold the outer conductor substantially separate from the inner conductor; and a tape layer including at least one layer of tape annularly arranged around the outer conductor, wherein the tape layer prevents the entry of air into the cable in the event of fire.
A display device (100, 200, 200a, 300, 300a, 400, 500, 500a, 500b, 500c, 500d, 500e), comprising: a plurality of pixels (111a, 111b, 111c) arranged in a matrix of rows and columns; and an antenna radiator configured with one or more conductors (101b, 101c) that are arranged along the rows and columns, characterised in that the antenna radiator is located within a layer that is formed by the plurality of pixels (111a, 111b, 111c), wherein the one or more conductors (101b, 101c) extend between the plurality of pixels (111a, 111b, 111c) to cross each other, thereby forming the antenna radiator in a mesh. a plurality of pixels (111a, 111b, 111c) arranged in a matrix of rows and columns; and an antenna radiator configured with one or more conductors (101b, 101c) that are arranged along the rows and columns, characterised in that the antenna radiator is located within a layer that is formed by the plurality of pixels (111a, 111b, 111c), wherein the one or more conductors (101b, 101c) extend between the plurality of pixels (111a, 111b, 111c) to cross each other, thereby forming the antenna radiator in a mesh.
A speaker (10,120,140,170), comprising: a housing; four substantially similar electro-acoustic drivers (46,48,50,52) secured inside the housing and driven by substantially the same audio signal, the drivers being arranged such that the net mechanical vibrational force between the drivers and the housing is substantially zero; and four substantially similar passive radiators (62,64,66,68) secured inside the housing and driven by acoustic energy from the four drivers, the passive radiators being arranged such that the net mechanical vibrational force between the passive radiators and the housing is substantially zero, wherein the intended directions of travel of the four drivers and the four passive radiators are substantially parallel with a shortest dimension of the housing. a housing; four substantially similar electro-acoustic drivers (46,48,50,52) secured inside the housing and driven by substantially the same audio signal, the drivers being arranged such that the net mechanical vibrational force between the drivers and the housing is substantially zero; and four substantially similar passive radiators (62,64,66,68) secured inside the housing and driven by acoustic energy from the four drivers, the passive radiators being arranged such that the net mechanical vibrational force between the passive radiators and the housing is substantially zero, wherein the intended directions of travel of the four drivers and the four passive radiators are substantially parallel with a shortest dimension of the housing.
Griddle pan comprising a base formed in a grid pattern with griddle bars (10, 12) and a rim partly enclosing the base, each griddle bar (10, 12) having an even upper support surface and an even lower support surface, wherein the upper support surface runs in an upper support plane and the lower support surface runs in a lower support plane, each griddle bar (10, 12) having a cross-sectional width (b), seen transversely to a longitudinal axis (10a, 12a) of the griddle bar (10, 12) and parallel to the support planes (14b, 16b), wherein the cross-sectional width (b) increases starting from each support surface (14, 16) up to a central position with a maximum cross-sectional width, and wherein the rim has a height (h), which is at least as great as a thickness (d) of the base being a mutual distance of the upper and lower support planes (14b, 16b).
A method for producing a microarray, comprising a. providing a first original array comprising a first support surface, to which at least one template molecule is bound, b. providing a second support surface (receiver surface), which is brought into a spatial orientation relative to the first support surface c. providing a liquid, containing an enzymatic and/or chemical reaction system, between the first and second surfaces, so that regions of the two surfaces are in contact with one another via the liquid, d. producing a product molecule using the template molecule and the enzymatic and/or chemical reaction system, e. transferring the product molecule to the second support surface via the liquid between the first and second support surfaces, wherein a correlation exists between the binding site of the template molecule to the first support surface and the accumulation of the corresponding product molecule on the second support surface, f. wherein the accumulation of the product molecule on the receiver surface is detected in real time, wherein the first support surface comprises reference spots that comprise reference molecules, wherein product molecules are produced from these reference molecules in step d), and the production of these product molecules according to steps e) and f) is detected in real time, and wherein the method is terminated as soon as a predefined reference size has been reached. a. providing a first original array comprising a first support surface, to which at least one template molecule is bound, b. providing a second support surface (receiver surface), which is brought into a spatial orientation relative to the first support surface c. providing a liquid, containing an enzymatic and/or chemical reaction system, between the first and second surfaces, so that regions of the two surfaces are in contact with one another via the liquid, d. producing a product molecule using the template molecule and the enzymatic and/or chemical reaction system, e. transferring the product molecule to the second support surface via the liquid between the first and second support surfaces, wherein a correlation exists between the binding site of the template molecule to the first support surface and the accumulation of the corresponding product molecule on the second support surface, f. wherein the accumulation of the product molecule on the receiver surface is detected in real time,