mhurhangee/ep-ind-claims huggingface dataset:
A power inverter comprising: a power module for converting a direct current to an alternating current; a capacitor module; a rectangular chassis; and a coolant passage being comprised in a cooling unit provided in the chassis, wherein the coolant passage is formed between the power module and the capacitor module, and a through-hole is formed between a side of the coolant passage and a long side of the rectangular chassis; wherein the capacitor module comprises: a capacitor cell, a positive busbar connecting to a first electrode of the capacitor cell, a negative busbar connecting to a second electrode of the capacitor cell, a capacitor positive terminal connecting the positive busbar to the power module through the through-hole, and a capacitor negative terminal connecting the negative busbar to the power module through the through-hole, the capacitor module characterized by a terminal cover for protecting the capacitor positive terminal and the capacitor negative terminal, wherein the terminal cover extends to the through-hole. a power module for converting a direct current to an alternating current; a capacitor module; a rectangular chassis; and a coolant passage being comprised in a cooling unit provided in the chassis, wherein the coolant passage is formed between the power module and the capacitor module, and a through-hole is formed between a side of the coolant passage and a long side of the rectangular chassis; wherein the capacitor module comprises: a capacitor cell, a positive busbar connecting to a first electrode of the capacitor cell, a negative busbar connecting to a second electrode of the capacitor cell, a capacitor positive terminal connecting the positive busbar to the power module through the through-hole, and a capacitor negative terminal connecting the negative busbar to the power module through the through-hole, the capacitor module characterized by a terminal cover for protecting the capacitor positive terminal and the capacitor negative terminal, wherein the terminal cover extends to the through-hole. a capacitor cell, a positive busbar connecting to a first electrode of the capacitor cell, a negative busbar connecting to a second electrode of the capacitor cell, a capacitor positive terminal connecting the positive busbar to the power module through the through-hole, and a capacitor negative terminal connecting the negative busbar to the power module through the through-hole, the capacitor module characterized by a terminal cover for protecting the capacitor positive terminal and the capacitor negative terminal, wherein the terminal cover extends to the through-hole.
A fastener member comprising: a base portion having a surface; and a plurality of engaging members vertically provided on the surface, the engaging members being mechanically coupled to a coupling target by engaging the engaging members with the coupling target, the fastener member comprising: the fastening member is characterized in that it comprises: an arm portion disposed on the base portion via a base connection portion such that a tip side can pivot in a direction so as to approach the surface; a claw portion provided on the arm portion; and a latching portion provided on the base portion that engages the claw portion when the coupling target is coupled, the tip side of the arm portion being positioned to a side opposite the surface away from tips of the engaging members when the coupling target is not coupled. the fastening member is characterized in that it comprises: an arm portion disposed on the base portion via a base connection portion such that a tip side can pivot in a direction so as to approach the surface; a claw portion provided on the arm portion; and a latching portion provided on the base portion that engages the claw portion when the coupling target is coupled, the tip side of the arm portion being positioned to a side opposite the surface away from tips of the engaging members when the coupling target is not coupled. an arm portion disposed on the base portion via a base connection portion such that a tip side can pivot in a direction so as to approach the surface; a claw portion provided on the arm portion; and a latching portion provided on the base portion that engages the claw portion when the coupling target is coupled, the tip side of the arm portion being positioned to a side opposite the surface away from tips of the engaging members when the coupling target is not coupled.
A fastener for use in a mammalian body, comprising: a first member; a second member, the first and second members having first and second ends (116,118,120,122); and a connecting member fixed to each of the first and second members intermediate the first and second ends and extending between the first and second members, the first and second members being separated by the connecting member, and the first member having a through channel arranged to be slidingly received on a tissue piercing deployment wire, and a configuration alterable by the tissue piercing deployment wire that permits release of the fastener from the tissue piercing deployment wire, characterized in that the first member has a sidewall including a lengthwise slit and is deformable by the tissue piercing deployment wire, the slit extending between the first and the second ends and communicating with the through channel so that the first member may be snapped onto the wire through the slit. a first member; a second member, the first and second members having first and second ends (116,118,120,122); and a connecting member fixed to each of the first and second members intermediate the first and second ends and extending between the first and second members, the first and second members being separated by the connecting member, and the first member having a through channel arranged to be slidingly received on a tissue piercing deployment wire, and a configuration alterable by the tissue piercing deployment wire that permits release of the fastener from the tissue piercing deployment wire, characterized in that the first member has a sidewall including a lengthwise slit and is deformable by the tissue piercing deployment wire, the slit extending between the first and the second ends and communicating with the through channel so that the first member may be snapped onto the wire through the slit.
Apparatus for the defined intermediate storage of produced articles of the same type but different size and for the simultaneous composition of consignments of said articles, said apparatus having the following features: a) a delivery path for conveying the produced products continuously into the region of stacking robots, b) a multitude of transport vehicles for transporting stacking pallet trolleys, c) a multitude of storage locations for stacking pallet trolleys, d) one or several stacking robots for filling order-picking pallets, characterized e) in that a plurality of induction lines for power supply and control of the transport vehicles (18, 9) are present, f) in that transport vehicles are designed to be able to travel under a stacking pallet trolley and on the upper surface have a coupling by way of which they are fixedly connectable to the trolley by means of a counterpart on said trolley, g) in that the transport vehicles (18, 9) have a non-contactlessly detecting distance sensor and a storage battery for bridging the power supply and in that, when connecting to the counterpart of the stacking pallet trolley, the coupling has a mechanism which automatically triggers an automatic braking system which works on said stacking pallet trolley when stationary, h) in that the stacking pallet trolleys have a bearing surface which is slightly inclined toward the surface of the floor and said bearing surface has one or more stacking supports at the lowest point. a) a delivery path for conveying the produced products continuously into the region of stacking robots, b) a multitude of transport vehicles for transporting stacking pallet trolleys, c) a multitude of storage locations for stacking pallet trolleys, d) one or several stacking robots for filling order-picking pallets, characterized e) in that a plurality of induction lines for power supply and control of the transport vehicles (18, 9) are present, f) in that transport vehicles are designed to be able to travel under a stacking pallet trolley and on the upper surface have a coupling by way of which they are fixedly connectable to the trolley by means of a counterpart on said trolley, g) in that the transport vehicles (18, 9) have a non-contactlessly detecting distance sensor and a storage battery for bridging the power supply and in that, when connecting to the counterpart of the stacking pallet trolley, the coupling has a mechanism which automatically triggers an automatic braking system which works on said stacking pallet trolley when stationary, h) in that the stacking pallet trolleys have a bearing surface which is slightly inclined toward the surface of the floor and said bearing surface has one or more stacking supports at the lowest point.
A fiber reinforced composite comprising: a core material, and a skin material comprising fibers and a resin, the skin material being disposed on at least a part of a surface of the core material, wherein the core material comprises a molded product of expanded beads containing a thermoplastic resin, and having a heat shrinkage onset temperature of 80°C or higher, a linear expansion coefficient of 10 × 10 -5 mm/mm· ° C or less, and a ratio of change in dimensions with heating at 130°C of -4.0% to 0%, wherein the thermoplastic resin contains 30% by mass to 75% by mass of a polyphenylene ether resin relative to 100% by mass of the thermoplastic resin contained in the molded product of expanded beads and wherein the heat shrinkage onset temperature, linear expansion coefficient and ratio of change in dimensions with heating at 130°C are measured according to the methods provided in the description. a core material, and a skin material comprising fibers and a resin, the skin material being disposed on at least a part of a surface of the core material, wherein the core material comprises a molded product of expanded beads containing a thermoplastic resin, and having a heat shrinkage onset temperature of 80°C or higher, a linear expansion coefficient of 10 × 10 -5 mm/mm· ° C or less, and a ratio of change in dimensions with heating at 130°C of -4.0% to 0%, wherein the thermoplastic resin contains 30% by mass to 75% by mass of a polyphenylene ether resin relative to 100% by mass of the thermoplastic resin contained in the molded product of expanded beads and wherein the heat shrinkage onset temperature, linear expansion coefficient and ratio of change in dimensions with heating at 130°C are measured according to the methods provided in the description.
A method of producing gears by a face hobbing cutting process with a face hobbing motion between gear and cutter, the cutter comprising a face hobbing cutter head having consecutive blade mounting slots configured for a blade orientation of inside cutting blades and outside cutting blades when positioned in the face hobbing cutter head, the method comprising grinding 3-face ground cutting blades, including: providing said inside cutting blades and outside cutting blades wherein each of said inside and outside cutting blades comprises a plurality of grinding surfaces including at least a cutting side surface, a clearance side relief surface and a front face, said inside cutting blade and said outside cutting blade to be positioned in said consecutive blade mounting slots of said face hobbing cutter headfor said gear production, said method being characterized by grinding at least one of said cutting side surface, said clearance side relief surface and said front face on each of said inside cutting blade and said outside cutting blade to produce, on each of said inside cutting blade and said outside cutting blade, angles realizing as a result of said face hobbing motion at least a predetermined effective cutting edge hook angle and a predetermined effective cutting side rake angle, grinding the front face of at least one of said inside cutting blade and said outside cutting blade whereby when positioned in said consecutive blade mounting slots of said face hobbing cutter head, the front face of said inside cutting blade and the front face of said outside cutting blade defining an initial blade spacing angle φ which is the slot spacing angle of the face hobbing cutter head. providing said inside cutting blades and outside cutting blades wherein each of said inside and outside cutting blades comprises a plurality of grinding surfaces including at least a cutting side surface, a clearance side relief surface and a front face, said inside cutting blade and said outside cutting blade to be positioned in said consecutive blade mounting slots of said face hobbing cutter headfor said gear production, said method being characterized by grinding at least one of said cutting side surface, said clearance side relief surface and said front face on each of said inside cutting blade and said outside cutting blade to produce, on each of said inside cutting blade and said outside cutting blade, angles realizing as a result of said face hobbing motion at least a predetermined effective cutting edge hook angle and a predetermined effective cutting side rake angle, grinding the front face of at least one of said inside cutting blade and said outside cutting blade whereby when positioned in said consecutive blade mounting slots of said face hobbing cutter head, the front face of said inside cutting blade and the front face of said outside cutting blade defining an initial blade spacing angle φ which is the slot spacing angle of the face hobbing cutter head.
Corrugated fins for heat exchanger to be interposed between flat tubes which are arrayed side by side separately from each other or to be installed in the flat tube, wherein: the material of the fin is aluminum or an aluminum alloy; the fin has respective wall surfaces of a rising part and a falling part between a peak part and a valley part which are bent into a waveform in a longitudinal direction of the fin; ridges and furrows which are 10 degrees to 60 degrees in angle of inclination relative to a width direction of the fin and are in the same direction are alternately arrayed side by side on the respective wall surfaces; and when a height of the ridges and furrows (an external dimension from the valley of a furrow part to the peak of a ridge part, including a plate thickness) is set to Wh[mm], a pitch of the ridges and furrows (a period from a certain ridge to the next ridge) is set to Wp[mm], a pitch of the corrugated fins is set to Pf[mm] and the plate thickness of the fin is set to Tf[mm], the fins being characterized in that it is 0.06 to 0.16 mm in plate thickness and in that the corrugated fins satisfy the following conditions and a gaseous body flows in the width direction of the fins, Wh ≦ 0.3674 ⋅ Wp + 1.893 ⋅ Tf − 0.1584 0.088 < Wh − Tf / Pf < 0.342 a ⋅ Wp 2 + b ⋅ Wp + c < Wh where a = 0.004·Pf 2 - 0.0696·Pf + 0.3642 b = -0.0036·Pf 2 + 0.0625·Pf - 0.5752, and c = 0.0007·Pf 2 + 0.1041·Pf + 0.2333. the material of the fin is aluminum or an aluminum alloy; the fin has respective wall surfaces of a rising part and a falling part between a peak part and a valley part which are bent into a waveform in a longitudinal direction of the fin; ridges and furrows which are 10 degrees to 60 degrees in angle of inclination relative to a width direction of the fin and are in the same direction are alternately arrayed side by side on the respective wall surfaces; and when a height of the ridges and furrows (an external dimension from the valley of a furrow part to the peak of a ridge part, including a plate thickness) is set to Wh[mm], a pitch of the ridges and furrows (a period from a certain ridge to the next ridge) is set to Wp[mm], a pitch of the corrugated fins is set to Pf[mm] and the plate thickness of the fin is set to Tf[mm], the fins being characterized in that it is 0.06 to 0.16 mm in plate thickness and in that the corrugated fins satisfy the following conditions and a gaseous body flows in the width direction of the fins, Wh ≦ 0.3674 ⋅ Wp + 1.893 ⋅ Tf − 0.1584 0.088 < Wh − Tf / Pf < 0.342 a ⋅ Wp 2 + b ⋅ Wp + c < Wh where a = 0.004·Pf 2 - 0.0696·Pf + 0.3642 b = -0.0036·Pf 2 + 0.0625·Pf - 0.5752, and c = 0.0007·Pf 2 + 0.1041·Pf + 0.2333. a = 0.004·Pf 2 - 0.0696·Pf + 0.3642 b = -0.0036·Pf 2 + 0.0625·Pf - 0.5752, and c = 0.0007·Pf 2 + 0.1041·Pf + 0.2333.
A method for connecting an energy generation installation to a medium-voltage grid, characterized by the following steps: - detecting, during an idle state of a medium-voltage transformer arranged between the energy generation installation and the medium-voltage grid, first voltage values at a capacitive voltage divider, arranged on the medium-voltage side of the medium-voltage transformer, and second voltage values at a voltage detection means arranged on the low-voltage side of the medium-voltage transformer, - determining a calibration factor for calibrating first voltage values using second voltage values based on the detected first and second voltage values by a controller of the energy generation installation, - obtaining voltage values at the capacitive voltage divider and determining calibrated voltage values from the obtained voltage values by applying the determined calibration factor, and - closing a circuit breaker arranged on the medium-voltage side of the medium-voltage transformer by the controller of the energy generation installation when the calibrated voltage values exceed a first threshold value. - detecting, during an idle state of a medium-voltage transformer arranged between the energy generation installation and the medium-voltage grid, first voltage values at a capacitive voltage divider, arranged on the medium-voltage side of the medium-voltage transformer, and second voltage values at a voltage detection means arranged on the low-voltage side of the medium-voltage transformer, - determining a calibration factor for calibrating first voltage values using second voltage values based on the detected first and second voltage values by a controller of the energy generation installation, - obtaining voltage values at the capacitive voltage divider and determining calibrated voltage values from the obtained voltage values by applying the determined calibration factor, and - closing a circuit breaker arranged on the medium-voltage side of the medium-voltage transformer by the controller of the energy generation installation when the calibrated voltage values exceed a first threshold value.
Fixing agent for fixing two objects, which agent consists of a mixture of an aerobic adhesive and a hydrophilic substance and which has the form of a set, which comprises two receptacles for separate storage of the aerobic adhesive and the hydrophilic substance, wherein the aerobic adhesive and the hydrophilic substance are removable from the receptacles for mixing up of the fixing agent, characterised in that the hydrophilic substance stored in the receptacle is dampened, wherein the hydrophilic substance contains 8 to 12% moisture referred to the mass thereof.
Method for anonymizing data stocks, having the steps: - determining a combination of generalization levels for quasi-identifiers of a data stock on a central node; - transmitting the combination of generalization levels to a multiplicity of sub-nodes; and - performing anonymization of the data stock in parallel by way of the sub-nodes on the basis of the combination of generalization levels. - determining a combination of generalization levels for quasi-identifiers of a data stock on a central node; - transmitting the combination of generalization levels to a multiplicity of sub-nodes; and - performing anonymization of the data stock in parallel by way of the sub-nodes on the basis of the combination of generalization levels.
Placement head for fitting substrates with electrical components in a placement device, wherein the placement head comprises a guide body for at least one holder for the components, on which the holder is mounted displaceably in a stroke direction (z) perpendicular to the substrate, wherein the holder is downwardly displaceable from an upper holding position in the direction of the substrate, wherein the holder can be electromagnetically coupled with a stroke actuator (3, 14, 19) displaceable relative to the guide body in the perpendicular direction (z) such that a downwardly directed stroke force can be transmitted to the holder by means of a magnetic holding force wherein the holding force acts on an end face of a switchable electromagnetic coil part, which is displaceable by the stroke actuator in the stroke direction, and wherein a ferromagnetic counterpart piece fixed on the holder can be applied to the end face or lifted from the end face, and the counterpart piece is configured as ferromagnetic, coupling part (31, 31') fixed on the holder with a horizontally protruding shoulder, which can be applied evenly to the upwardly facing end face of the coil part (34, 34'), characterised in that the power supply to the coil part (34, 34') can be varied by an electrical control unit such that the magnetic adhesive force produced by the coil part (34, 34') before the component is placed on the substrate can be adjusted to a value which corresponds to a predetermined contact force, so that the ferromagnetic counterpart piece lifts off the end face when the component is placed on the substrate.
A Gram-negative bacterial host prokaryotic organism which is E. coli, comprising: a nucleotide sequence encoding at least one glycosyltransferase from a Gram-positive bacterium which is S. aureus; a nucleotide sequence encoding at least one glycosyltransferase from a Gram-negative bacterium which is P. aeruginosa; a nucleotide sequence encoding a protein; and a nucleotide sequence encoding an oligosaccharyl transferase.
An identification decoding method for a digital fingerprint code wherein the digital fingerprint code is an identification code which comprises a set of curves wherein a content is embedded by a plurality of N-bit data; wherein each possible value of N-bit data has a thickness (T N,i) and length (L N,i); and wherein the plurality of N-bit data comprises a first N-bit data (N 1), subsequent by a different second N-bit data (N 2) on a curve of the set of curves; and wherein the thickness (T N,i,1) of value (v N,1) of the first N-bit data (N 1) on the curve is different from the thickness (T N,i,2) of value (v N,2) of the second N-bit data (N 2) and/or wherein the length (L N,i,1) of value (v N,1) of the first N-bit data (N 1) on the curve is different from the length (L N,i,2) of value (v N,2) of the second N-bit data (N 2); and wherein the identification decoding method comprises the following steps: - capturing the digital fingerprint code by a digital imaging device; and - determining an image captured curve in the image captured digital fingerprint code; and - determining from a set of two-dimensional points (p k) on the image captured curve a set of thicknesses (t k) in the perpendicular direction of the image captured curve; and - determining the plurality of N-bit data from the set of thicknesses (t k) and the location of the set of two-dimensional points (p k) on the image captured curve; and wherein each curve of the set of curves from the digital fingerprint code is a bounded, non-intersecting, continuous line. - capturing the digital fingerprint code by a digital imaging device; and - determining an image captured curve in the image captured digital fingerprint code; and - determining from a set of two-dimensional points (p k) on the image captured curve a set of thicknesses (t k) in the perpendicular direction of the image captured curve; and - determining the plurality of N-bit data from the set of thicknesses (t k) and the location of the set of two-dimensional points (p k) on the image captured curve; and