mhurhangee/ep-ind-claims huggingface dataset:
A valve device for a high-pressure gas storage tank, the valve device comprising: a plurality of gas storage tanks having nozzle parts through which a gas is discharged; a block fixing part that accommodates the plurality of nozzle parts and has a gas flow path part, through which the gas discharged from the nozzle parts flows, in an internal space thereof; a fastening part that fixes the block fixing part to the gas storage tank; and an opening/closing part that is connected to the block fixing part and adjusts external discharge of the gas discharged from the nozzle parts and flowing to the gas flow path part wherein each of the gas storage tanks includes a tank part that stores the gas in an internal space thereof and has the nozzle part at an end thereof; and a flange part that surrounds the nozzle part, is fixed to the tank part, and is fastened to the fastening part, wherein the block fixing part includes a block fixing body part that accommodates the plurality of nozzle parts and has the gas flow path part formed in an internal space thereof; and a nozzle insertion part which is formed in a concave shape inside the block fixing body part, into which the nozzle part is inserted, and which communicates with the gas flow path part, and wherein the gas flow path part is formed in the block fixing body part in a lengthwise direction of the block fixing body part, communicates with the nozzle insertion part, guides a flow of the gas discharged from the nozzle part, and is connected to the opening/closing part. a plurality of gas storage tanks having nozzle parts through which a gas is discharged; a block fixing part that accommodates the plurality of nozzle parts and has a gas flow path part, through which the gas discharged from the nozzle parts flows, in an internal space thereof; a fastening part that fixes the block fixing part to the gas storage tank; and an opening/closing part that is connected to the block fixing part and adjusts external discharge of the gas discharged from the nozzle parts and flowing to the gas flow path part wherein each of the gas storage tanks includes a tank part that stores the gas in an internal space thereof and has the nozzle part at an end thereof; and a flange part that surrounds the nozzle part, is fixed to the tank part, and is fastened to the fastening part, wherein the block fixing part includes a block fixing body part that accommodates the plurality of nozzle parts and has the gas flow path part formed in an internal space thereof; and a nozzle insertion part which is formed in a concave shape inside the block fixing body part, into which the nozzle part is inserted, and which communicates with the gas flow path part, and wherein the gas flow path part is formed in the block fixing body part in a lengthwise direction of the block fixing body part, communicates with the nozzle insertion part, guides a flow of the gas discharged from the nozzle part, and is connected to the opening/closing part.
System consisting of a charging device and a vehicle energy converter for a motor vehicle, having a charging connection for line-connected energetic coupling to a motor vehicle-external charging station, a high-voltage connection for electrically connecting the charging device to a high-voltage on-board power supply of the motor vehicle and a charging device energy converter electrically coupled to the charging connection and the high-voltage connection, wherein the charging device energy converter for converting electrical energy between the charging connection and the high-voltage connection has an electrical inductance as an electrical energy store, which is at least partially designed as an electronic main coil, wherein the charging device has a low-voltage connection for connecting to a low-voltage on-board power supply of the motor vehicle as well as an electronic auxiliary coil which is coupled magnetically to the main coil and electrically to the low-voltage connection and which is configured to provide electrical energy for the low-voltage on-board power supply, wherein, during proper operation of the motor vehicle, the high-voltage on-board power supply and the low-voltage on-board power supply are coupled energetically by means of the vehicle energy converter in order to provide electrical energy from the high-voltage on-board power supply for the low-voltage on-board power supply and the auxiliary coil is configured to be able to provide the required power for the low-voltage on-board power supply during the charging operation, characterised in that, during the charging operation, the auxiliary coil already provides the low-voltage on-board power supply with the electrical voltage in a magnitude which is adapted such that it can be used by the low-voltage on-board power supply without further transformation, wherein the charging device has a detecting unit which is configured to detect the energetic coupling of the charging device to the charging station and to output a corresponding charging signal in order to deactivate the vehicle energy converter, such that the energy supply is carried out via the auxiliary coil and the low-voltage connection of the charging device.
A method for producing a roll clad steel foil, characterized in that - a steel band having a band thickness of up to 4 mm with a chrome content of < 9 wt.-% is coated on both sides through roll cladding with a layer made of aluminum or an aluminum alloy with a silicon content of ≤ 2 wt.-% such that the thickness ratio of the aluminum or the aluminum alloy layer per side to the overall thickness is ≥ 6% and - the coated steel band is subsequently rolled to a thickness of 10-150 μm wherein the coated steel band is rolled to intermediate thicknesses and then finally rolled, wherein the coated steel band rolled to intermediate thicknesses is intermediately annealed before the final rolling. - a steel band having a band thickness of up to 4 mm with a chrome content of < 9 wt.-% is coated on both sides through roll cladding with a layer made of aluminum or an aluminum alloy with a silicon content of ≤ 2 wt.-% such that the thickness ratio of the aluminum or the aluminum alloy layer per side to the overall thickness is ≥ 6% and - the coated steel band is subsequently rolled to a thickness of 10-150 μm
A multi-aperture vacuum tool comprising: a distributed vacuum tool portion (110, 102, 150), the distributed vacuum tool portion (110, 102, 150) comprised of a plate having a plurality of apertures that extend through an interior plate surface and an exterior plate surface, wherein air is able to pass through the plurality of apertures from the exterior plate surface towards the interior plate surface when the distributed vacuum tool portion (110, 102, 150) is activated; and a refined vacuum tool portion, wherein the refined vacuum tool portion is physically coupled to the distributed vacuum tool portion (110, 102, 150), the refined vacuum tool portion has fewer apertures than the plurality of apertures of the distributed vacuum tool portion (110, 102, 150), the distributed vacuum tool portion (110, 102, 150) is configured to manipulate a portion of material, the refined vacuum tool portion is configured to manipulate a smaller portion of material than the portion of material which the distributed vacuum tool portion (110, 102, 150) manipulates, and characterized in that a material-contacting surface of the refined vacuum tool portion is in a common plane as the plate. a distributed vacuum tool portion (110, 102, 150), the distributed vacuum tool portion (110, 102, 150) comprised of a plate having a plurality of apertures that extend through an interior plate surface and an exterior plate surface, wherein air is able to pass through the plurality of apertures from the exterior plate surface towards the interior plate surface when the distributed vacuum tool portion (110, 102, 150) is activated; and a refined vacuum tool portion, wherein the refined vacuum tool portion is physically coupled to the distributed vacuum tool portion (110, 102, 150), the refined vacuum tool portion has fewer apertures than the plurality of apertures of the distributed vacuum tool portion (110, 102, 150), the distributed vacuum tool portion (110, 102, 150) is configured to manipulate a portion of material, the refined vacuum tool portion is configured to manipulate a smaller portion of material than the portion of material which the distributed vacuum tool portion (110, 102, 150) manipulates, and characterized in that a material-contacting surface of the refined vacuum tool portion is in a common plane as the plate.
A hybrid nuclease molecule comprising a human RNase and a mutant human IgG1 Fc domain, wherein the human RNase is operatively coupled to the Fc domain and wherein the Fc domain includes a P238S mutation and a P331S mutation and has reduced cytotoxicity relative to a hybrid nuclease molecule having an unmodified Fc domain, and wherein the hybrid nuclease molecule comprises: an amino acid sequence set forth in SEQ ID NO: 96, 92, 62, or 78; or an amino acid sequence set forth in SEQ ID NO: 98 or 94. an amino acid sequence set forth in SEQ ID NO: 96, 92, 62, or 78; or an amino acid sequence set forth in SEQ ID NO: 98 or 94.
A system for executing a given scientific code using a suitable finite-volume or finite-element solver for a dataset represented as a grid, comprising a plurality of equal computing nodes and a front-end node all of them interconnected by node communication means (3, 4, 5) and a parallel computing software package for distributing and controlling the execution of said scientific code in sub-grids of said grid among said computing nodes, wherein: - each computing node comprises at least a first processing means and a second processing means, which are interconnected by a bus (23, 24), said first processing means being a CPU-based processing means and said second processing means being a FPGA-based processing means; - said parallel computing software package is configured for the simultaneous execution of at least one first solver process and one second solver process of said scientific code in each computing node, where each solver process solves at least one sub-grid of said grid, and for managing the exchange of boundary data between the first and second solver processes that compute neighbour sub-grids after each step of the solver; - said first solver process is fully executed in a first processing means and said second solver process is fully executed in a second processing means with the collaboration of a first processing means for loading and unloading the sub-grid and the exchange of boundary data; and - said first and second solver processes have the same communication interface for exchanging boundary data with the first and second solver processes that solve neighbour sub-grids. - each computing node comprises at least a first processing means and a second processing means, which are interconnected by a bus (23, 24), said first processing means being a CPU-based processing means and said second processing means being a FPGA-based processing means; - said parallel computing software package is configured for the simultaneous execution of at least one first solver process and one second solver process of said scientific code in each computing node, where each solver process solves at least one sub-grid of said grid, and for managing the exchange of boundary data between the first and second solver processes that compute neighbour sub-grids after each step of the solver; - said first solver process is fully executed in a first processing means and said second solver process is fully executed in a second processing means with the collaboration of a first processing means for loading and unloading the sub-grid and the exchange of boundary data; and - said first and second solver processes have the same communication interface for exchanging boundary data with the first and second solver processes that solve neighbour sub-grids.
A display panel comprising: a first flat surface; a first side surface extending from a first side of the first flat surface; a second side surface extending from a second side of the first flat surface; wherein the first and the second side surfaces (SS1, SS2) extend from opposite sides of the first flat surface; a first extension surface extending from a first side of the first side surface; and a second extension surface extending from a first side of the second side surface; wherein the first and the second extension surfaces (ES1, ES2) extend from a side adjacent the first side and adjacent the second side of the first flat surface, respectively, wherein the first and the second extension surfaces (ES1, ES2) extend in opposite directions, and wherein a first side of the first extension surface is in contact with or close to a third side of the first flat surface, and a first side of the second extension surface is in contact with or close to a fourth side of the first flat surface. a first flat surface; a first side surface extending from a first side of the first flat surface; a second side surface extending from a second side of the first flat surface; wherein the first and the second side surfaces (SS1, SS2) extend from opposite sides of the first flat surface; a first extension surface extending from a first side of the first side surface; and a second extension surface extending from a first side of the second side surface; wherein the first and the second extension surfaces (ES1, ES2) extend from a side adjacent the first side and adjacent the second side of the first flat surface, respectively, wherein the first and the second extension surfaces (ES1, ES2) extend in opposite directions, and wherein a first side of the first extension surface is in contact with or close to a third side of the first flat surface, and a first side of the second extension surface is in contact with or close to a fourth side of the first flat surface.
An electric switch mounting arrangement comprising a housing and stationary contacts (110, 210, 310) to be mounted to an aperture (103, 203) in a wall of the housing, characterized in that the arrangement comprises compensation means within the interior area of the aperture for allowing stationary contacts of two different sizes (110, 210, 310) to be mounted to the aperture (103, 203), which compensation means comprises one or more projections (109, 209) arranged on a wall of the aperture of the housing, the stationary contacts (110, 210, 310) comprising a first stationary contact (110, 210) and a second stationary contact, wherein the first stationary contact is arranged to lie on the projection (109, 209), and the second stationary contact comprises a recess for receiving the projection.
Inverter unit, - wherein the inverter unit has two supply busbars (9, 10), a load busbar and a central busbar, - wherein each supply busbar (9, 10) is connected to a positive and a negative supply potential, - wherein the two supply busbars (9, 10) are disposed congruently one on top of the other, - wherein in a connection area the central busbar and the supply busbars (9, 10) have connecting points, at which the central busbar is capacitively connected to the supply busbars (9, 10) by way of capacitor units (5, 6), - wherein a 2-level switching device, which is connected to the supply busbars (9, 10) on the one hand and to the load busbar on the other hand, is arranged in a switching range below the supply busbars (9, 10), - wherein the 2-level switching device is arranged on a main cooling element arranged below the 2-level switching device, - wherein at the same height as the 2-level switching device the inverter unit has a gap for a bidirectional switching device, which, in the event of its presence, is connected to the load busbar and to the central busbar and is arranged on the main cooling element or an additional cooling element arranged at the same height as the main cooling element. - wherein the inverter unit has two supply busbars (9, 10), a load busbar and a central busbar, - wherein each supply busbar (9, 10) is connected to a positive and a negative supply potential, - wherein the two supply busbars (9, 10) are disposed congruently one on top of the other, - wherein in a connection area the central busbar and the supply busbars (9, 10) have connecting points, at which the central busbar is capacitively connected to the supply busbars (9, 10) by way of capacitor units (5, 6), - wherein a 2-level switching device, which is connected to the supply busbars (9, 10) on the one hand and to the load busbar on the other hand, is arranged in a switching range below the supply busbars (9, 10), - wherein the 2-level switching device is arranged on a main cooling element arranged below the 2-level switching device, - wherein at the same height as the 2-level switching device the inverter unit has a gap for a bidirectional switching device, which, in the event of its presence, is connected to the load busbar and to the central busbar and is arranged on the main cooling element or an additional cooling element arranged at the same height as the main cooling element.
A method of capturing onto a solid surface bacteria and fungi and/or fragments of bacteria and fungi present in an aqueous liquid, comprising adding to said liquid a sufficient quantity of a water soluble polymer in the presence of said solid surface to displace said bacteria and fungi and/or fragments thereof from the liquid to the solid surface, wherein the bacteria and fungi are Mycobacteria or fragments thereof, and/or the solid surface is provided by (a) paramagnetic beads with a carboxy surface or (b) a polymer having negatively charged surface groups.
A patch antenna comprising: a plurality of radiating layers, each radiating layer comprising: a first planar-shaped dielectric substrate; a radiating element on a first side of the dielectric substrate; a moat in the dielectric substrate around a perimeter of the radiating element and forming a continuous inner perimeter sidewall and a continuous outer perimeter sidewall; a plurality of tabs extending between the inner perimeter sidewall and the outer perimeter sidewall, the plurality of tabs operable to maintain an inner substrate portion in a fixed physical relation to an outer substrate portion of the dielectric substrate; a conductive coating disposed on at least one of the inner perimeter sidewall and the outer perimeter sidewall; and a second planar-shaped dielectric substrate having a third side and an opposing fourth side, the second dielectric substrate comprising: a microstrip feed line disposed on the third side; and a ground plane disposed on the fourth side, the ground plane having a hole between the radiating element and the microstrip feed line. a plurality of radiating layers, each radiating layer comprising: a first planar-shaped dielectric substrate; a radiating element on a first side of the dielectric substrate; a moat in the dielectric substrate around a perimeter of the radiating element and forming a continuous inner perimeter sidewall and a continuous outer perimeter sidewall; a plurality of tabs extending between the inner perimeter sidewall and the outer perimeter sidewall, the plurality of tabs operable to maintain an inner substrate portion in a fixed physical relation to an outer substrate portion of the dielectric substrate; a conductive coating disposed on at least one of the inner perimeter sidewall and the outer perimeter sidewall; and a second planar-shaped dielectric substrate having a third side and an opposing fourth side, the second dielectric substrate comprising: a microstrip feed line disposed on the third side; and a ground plane disposed on the fourth side, the ground plane having a hole between the radiating element and the microstrip feed line. a first planar-shaped dielectric substrate; a radiating element on a first side of the dielectric substrate; a moat in the dielectric substrate around a perimeter of the radiating element and forming a continuous inner perimeter sidewall and a continuous outer perimeter sidewall; a plurality of tabs extending between the inner perimeter sidewall and the outer perimeter sidewall, the plurality of tabs operable to maintain an inner substrate portion in a fixed physical relation to an outer substrate portion of the dielectric substrate; a conductive coating disposed on at least one of the inner perimeter sidewall and the outer perimeter sidewall; and a second planar-shaped dielectric substrate having a third side and an opposing fourth side, the second dielectric substrate comprising: a microstrip feed line disposed on the third side; and a ground plane disposed on the fourth side, the ground plane having a hole between the radiating element and the microstrip feed line.
A process for the preparation of an insulin-lipid complex, comprising: - dissolving an insulin in methanol containing trifluoroacetic acid to form a clear insulin solution; - dissolving a lipid material in dichloromethane to form a clear lipid solution; - homogeneously mixing of the insulin solution and the lipid solution; and - conducting rotary evaporation under reduced pressure in a water bath, evacuating by a water pump, and drying, wherein the insulin is recombinant human insulin, the lipid material is a natural phospholipid or a salt thereof, the mass ratio of the insulin to the lipid material is between 1:5 and 1:10, the concentration of trifluoroacetic acid in methanol is 0.05-0.1%, and the amount of dichloromethane is 4-6 times of that of methanol. - dissolving an insulin in methanol containing trifluoroacetic acid to form a clear insulin solution; - dissolving a lipid material in dichloromethane to form a clear lipid solution; - homogeneously mixing of the insulin solution and the lipid solution; and - conducting rotary evaporation under reduced pressure in a water bath, evacuating by a water pump, and drying, wherein the insulin is recombinant human insulin, the lipid material is a natural phospholipid or a salt thereof, the mass ratio of the insulin to the lipid material is between 1:5 and 1:10, the concentration of trifluoroacetic acid in methanol is 0.05-0.1%, and the amount of dichloromethane is 4-6 times of that of methanol.
A multistep continuous microreactor flow synthesis method, suitable for producing a yield greater than 90%, for the manufacture of isonicotinyl-hydrazide of Formula 1 comprising the steps of: a) in a first microreactor, or a first part of a suitable microreactor setup, reacting 4-cyano pyridine of Formula 12 in a mixture of water and alcohol, with NaOH in a molar ratio of 4-cyano pyridine:NaOH of 1:0.2 to 1:0.4 at a temperature of 95 °C to 105 °C to produce the intermediate isonicotinamide of Formula 13 b) in a second microreactor, or a second part of a suitable microreactor setup, which is in fluid communication with the first microreactor, or the first part of the microreactor, reacting the intermediate isonicotinamide of Formula 13 with hydrazine hydrate in a molar ratio of isonicotinamide:hydrazine hydrate of 1:1.75 to 1:2.50 at a temperature of 100°C to 120 °C, wherein the reaction in step a) has a residence time of 10 to 32 minutes, and the reaction in step b) has a residence time of 10 to 25 minutes. a) in a first microreactor, or a first part of a suitable microreactor setup, reacting 4-cyano pyridine of Formula 12 in a mixture of water and alcohol, with NaOH in a molar ratio of 4-cyano pyridine:NaOH of 1:0.2 to 1:0.4 at a temperature of 95 °C to 105 °C to produce the intermediate isonicotinamide of Formula 13 b) in a second microreactor, or a second part of a suitable microreactor setup, which is in fluid communication with the first microreactor, or the first part of the microreactor, reacting the intermediate isonicotinamide of Formula 13 with hydrazine hydrate in a molar ratio of isonicotinamide:hydrazine hydrate of 1:1.75 to 1:2.50 at a temperature of 100°C to 120 °C,