mhurhangee/ep-ind-claims huggingface dataset:
Bending machine (10; 110) comprising: - a tool holder (22; 122) comprising a plurality of tool-receiving portions (23; 123), each tool-receiving portion (23; 123) being designed to exchangeably receive a bending tool (24; 124) in each case, - a bending drive device (30; 130) that can be coupled to at least one bending tool (24; 124) so as to transmit a bending force, the tool holder (22; 122) being movable relative to the bending drive device (30; 130) such that each tool-receiving portion (23; 123) can be selectively brought into a selection position, - a main body (20; 120) on which the tool holder (22; 122) and the bending drive device (30; 130) are provided, - a tool transport device (40; 140) that is designed to transport a bending tool (24; 124), which is received in a tool-receiving portion (23; 123) that is in the selection position, from the tool-receiving portion (23; 123) into a bending position, in which the bending tool (24; 124) is coupled or can be coupled to the bending drive device (30; 130) so as to transmit the bending force, characterised in that the tool holder (22; 122) comprises a rotary table (21; 121) on which the tool-receiving portions (23; 123) are provided, and which is mounted so as to be able to rotate about a rotary table axis (21a; 121a), preferably mounted on the main body (20; 120) or on a component connected to the main body (20; 120) so as to be able to rotate about the rotary table axis (21a; 121a), the rotary table axis (21a; 121a) preferably extending in parallel with a bending force direction (z), and it being possible to bring the tool transport device (40; 140) into engagement with a bending tool (24; 124) in a tool-receiving portion in the selection position by means of a rotational movement of the tool holder (22; 122) relative to the tool transport device (40; 140). - a tool holder (22; 122) comprising a plurality of tool-receiving portions (23; 123), each tool-receiving portion (23; 123) being designed to exchangeably receive a bending tool (24; 124) in each case, - a bending drive device (30; 130) that can be coupled to at least one bending tool (24; 124) so as to transmit a bending force, the tool holder (22; 122) being movable relative to the bending drive device (30; 130) such that each tool-receiving portion (23; 123) can be selectively brought into a selection position, - a main body (20; 120) on which the tool holder (22; 122) and the bending drive device (30; 130) are provided, - a tool transport device (40; 140) that is designed to transport a bending tool (24; 124), which is received in a tool-receiving portion (23; 123) that is in the selection position, from the tool-receiving portion (23; 123) into a bending position, in which the bending tool (24; 124) is coupled or can be coupled to the bending drive device (30; 130) so as to transmit the bending force,
An asymmetric interfering RNA duplex molecule consisting of: an antisense strand, consisting of 19-23 nucleotides, wherein the antisense strand contains a 3' overhang and a 5' overhang, and wherein the 3' overhang consists of RNA nucleotides, and a sense strand, consisting of 14-17 nucleotides, wherein the sense strand is at least 70% complementary to the antisense strand, wherein the antisense strand is at least 70% complementary to a target mRNA; and wherein the antisense strand and the sense strand form a 14, 15, 16, or 17 nucleotide base pair double-stranded region. an antisense strand, consisting of 19-23 nucleotides, wherein the antisense strand contains a 3' overhang and a 5' overhang, and wherein the 3' overhang consists of RNA nucleotides, and a sense strand, consisting of 14-17 nucleotides, wherein the sense strand is at least 70% complementary to the antisense strand, wherein the antisense strand is at least 70% complementary to a target mRNA; and wherein the antisense strand and the sense strand form a 14, 15, 16, or 17 nucleotide base pair double-stranded region.
A method for applying an inner coating by means of a coating device to an inner surface of a hose in a continuous method, which hose is made of at least two hose elements (6, 6') by joining the at least two hose elements (6, 6') to form a hose, wherein, directly after the joining of the at least two hose elements (6, 6') while the hose elements (6, 6') pass through the joining device is applied to the inner surface of the hose, wherein the joining takes place by means of crossing the hose elements (6, 6'), so that the hose element (6, 6') have different height positions to one another in partial areas, characterized in that the inner coating for sealing the hose elements (6, 6') is applied by means of spray head.
An array light source (100, 200) comprising an integrated circuit (110, 210) and an array of electroluminescent semiconductor element light sources, in which the integrated circuit comprises: - at least one electronic circuit for driving the power supply to the elementary light sources, and a receiving area (112, 212) having a substrate, configured to receive said array, - at least one part, including a part of the reception zone and of the at least one electronic circuit, which is repeated at least once along a main axis, - at least one connection zone (213, 214) adjacent to the reception zone (112, 212), the connection zone being designed to connect the electronic circuit to at least one external component, the matrix light source being characterised in that the connection zone comprises at least one through aperture. - at least one electronic circuit for driving the power supply to the elementary light sources, and a receiving area (112, 212) having a substrate, configured to receive said array, - at least one part, including a part of the reception zone and of the at least one electronic circuit, which is repeated at least once along a main axis, - at least one connection zone (213, 214) adjacent to the reception zone (112, 212), the connection zone being designed to connect the electronic circuit to at least one external component,
A method, comprising: comparing a total transmit power of a plurality of power-controlled channels with a maximum power level, wherein the plurality of power-controlled channels comprise control channels and data channels configured for parallel control and data transmissions in an uplink subframe; looking up an initial power backoff value to be subtracted from the maximum power level based on power-frequency profile parameters of the control channels, when the total transmit power exceeds the maximum power level; iterating the power backoff value and power-scaling until the change in the power backoff value is less than some predefined threshold, wherein an iterated power backoff value is based on iterated power-scaling, and wherein iterating the power backoff value is based at least in part on a priority of channels in the plurality of power-controlled channels; and adjusting a transmit power of one or more channels in the plurality of power-controlled channels based on a result of iterating the power backoff value. comparing a total transmit power of a plurality of power-controlled channels with a maximum power level, wherein the plurality of power-controlled channels comprise control channels and data channels configured for parallel control and data transmissions in an uplink subframe; looking up an initial power backoff value to be subtracted from the maximum power level based on power-frequency profile parameters of the control channels, when the total transmit power exceeds the maximum power level; iterating the power backoff value and power-scaling until the change in the power backoff value is less than some predefined threshold, wherein an iterated power backoff value is based on iterated power-scaling, and wherein iterating the power backoff value is based at least in part on a priority of channels in the plurality of power-controlled channels; and adjusting a transmit power of one or more channels in the plurality of power-controlled channels based on a result of iterating the power backoff value.
A system comprising: a rotor having a surface defining a plurality of first fluid-conveying features; a microfluidic device defining one or more channels (118, 119) and a plurality of second fluid-conveying features, in fluid communication with the one or more channels (118, 119); a rotor driver coupled to the rotor and configured to rotate the rotor, relative to the microfluidic device, between a first position and a second position such that, in each of the positions, at least one of the first fluid-conveying features cooperates with at least one of the one or more channels to provide for fluid communication therebetween; a clamping mechanism comprising a linear actuator operable to move one of the microfluidic device or the rotor into contact with the other of the microfluidic device or the rotor and provide a sealing force to establish a fluid- tight seal between the surface of the rotor and the microfluidic device; characterized in that the system further comprises control electronics operatively associated with the clamping mechanism and configured to control operation of the clamping mechanism such that the sealing force is reduced prior to and during the rotation of the rotor relative to the microfluidic device by causing the linear actuator to move one of the microfluidic device or the rotor away from the other of the microfluidic device and the rotor. a rotor having a surface defining a plurality of first fluid-conveying features; a microfluidic device defining one or more channels (118, 119) and a plurality of second fluid-conveying features, in fluid communication with the one or more channels (118, 119); a rotor driver coupled to the rotor and configured to rotate the rotor, relative to the microfluidic device, between a first position and a second position such that, in each of the positions, at least one of the first fluid-conveying features cooperates with at least one of the one or more channels to provide for fluid communication therebetween; a clamping mechanism comprising a linear actuator operable to move one of the microfluidic device or the rotor into contact with the other of the microfluidic device or the rotor and provide a sealing force to establish a fluid- tight seal between the surface of the rotor and the microfluidic device; characterized in that the system further comprises control electronics operatively associated with the clamping mechanism and configured to control operation of the clamping mechanism such that the sealing force is reduced prior to and during the rotation of the rotor relative to the microfluidic device by causing the linear actuator to move one of the microfluidic device or the rotor away from the other of the microfluidic device and the rotor.
A sunlight shielding apparatus comprising: a frame formed of a shaped material having an aperture; a target member to be fixed that is supported in the frame in such a manner that the target member can move only in a length direction of the frame; fixing means (24, 28a, 28b, 31) attached to the target member and configured to fix the target member to the frame, characterized in that the fixing means comprise: an elastic pressing member; a support portion (28a, 28b) formed on the target member and configured to support the pressing member in such a manner that the pressing member can rotate between a fixed position and a fixation-released position of the target member; and pressing force generation means formed on the target member and configured to press the pressing member against an upper portion of an inner side surface of the frame at the fixed position. a frame formed of a shaped material having an aperture; a target member to be fixed that is supported in the frame in such a manner that the target member can move only in a length direction of the frame; fixing means (24, 28a, 28b, 31) attached to the target member and configured to fix the target member to the frame, characterized in that the fixing means comprise: an elastic pressing member; a support portion (28a, 28b) formed on the target member and configured to support the pressing member in such a manner that the pressing member can rotate between a fixed position and a fixation-released position of the target member; and pressing force generation means formed on the target member and configured to press the pressing member against an upper portion of an inner side surface of the frame at the fixed position. an elastic pressing member; a support portion (28a, 28b) formed on the target member and configured to support the pressing member in such a manner that the pressing member can rotate between a fixed position and a fixation-released position of the target member; and pressing force generation means formed on the target member and configured to press the pressing member against an upper portion of an inner side surface of the frame at the fixed position.
Shock absorber having a shock absorber tube and having an external module tube which is arranged retentively on the outside of the shock absorber tube by means of a flange, wherein the flange has one or more fluid ducts (13, 14) which fluidically couple the module tube to the shock absorber tube, and wherein the flange has a plastics body in which the fluid ducts (13, 14) for the fluidic coupling are formed, and that the flange furthermore has metallic connecting elements (16, 17) which extend between the shock absorber tube and the module tube and by means of which the retentive connection between the shock absorber tube and the module tube is formed, characterized in that the metallic connecting elements are formed by connecting strips or connecting bars with a substantially unchanging cross section between the shock absorber tube and the external module tube, wherein the connecting strips or the connecting bars extend through the plastics body.
Coaxial RF counter connector, comprising at least a counter connector inner conductor which comprises a contact section having a bare metal surface, a counter connector outer conductor, which comprises a second contact section having a bare metal surface, the counter connector outer conductor being arranged coaxial to the counter connector inner conductor, and a centering sleeve, the centering sleeve having a cylindrical inner surface having an inner contour coaxial to the inner conductor or a cylindrical outer surface having an outer contour coaxial to the inner conductor, characterized in, that an insulating sleeve comprising electrically insulation material or insulation layer is included at the cylindrical inner or outer surface of the centering sleeve. a counter connector inner conductor which comprises a contact section having a bare metal surface, a counter connector outer conductor, which comprises a second contact section having a bare metal surface, the counter connector outer conductor being arranged coaxial to the counter connector inner conductor, and a centering sleeve, the centering sleeve having a cylindrical inner surface having an inner contour coaxial to the inner conductor or a cylindrical outer surface having an outer contour coaxial to the inner conductor, characterized in, that an insulating sleeve comprising electrically insulation material or insulation layer is included at the cylindrical inner or outer surface of the centering sleeve.
A direct drive parallel power system (200, 250) for powering a transport climate control system, the direct drive parallel power system comprising: a powertrain that includes a prime mover, a motor-generator, and a drive shaft, wherein the prime mover is configured to generate mechanical power for powering a direct driven load of the transport climate control system via the drive shaft, wherein the motor-generator includes a motor and a generator, and wherein the motor is configured to generate mechanical power for powering the direct driven load via the drive shaft; a battery source electrically connected to the generator of the motor-generator, wherein the battery source is configured to supply electrical power to the motor of the motorgenerator and configured to supply electrical power to an electrically driven load of the transport climate control system; and a power system controller configured to monitor and control operation of the prime mover, the motor-generator, and the battery source; characterized in that the power system controller is configured to operate the direct drive parallel power system in a parallel operation mode in which both the prime mover and the motorgenerator are instructed to concurrently supply mechanical power via the drive shaft to the direct driven load. a powertrain that includes a prime mover, a motor-generator, and a drive shaft, wherein the prime mover is configured to generate mechanical power for powering a direct driven load of the transport climate control system via the drive shaft, wherein the motor-generator includes a motor and a generator, and wherein the motor is configured to generate mechanical power for powering the direct driven load via the drive shaft; a battery source electrically connected to the generator of the motor-generator, wherein the battery source is configured to supply electrical power to the motor of the motorgenerator and configured to supply electrical power to an electrically driven load of the transport climate control system; and a power system controller configured to monitor and control operation of the prime mover, the motor-generator, and the battery source; characterized in that the power system controller is configured to operate the direct drive parallel power system in a parallel operation mode in which both the prime mover and the motorgenerator are instructed to concurrently supply mechanical power via the drive shaft to the direct driven load.
A surgical instrument support tray configured to support one or more surgical instruments having a pair of ring handles (R 1, R 2), the pair of ring handles (R 1, R 2) including a first ring handle (R 1)and a second ring handle (R 2), said surgical instrument support tray comprising: a surface configured to support the one or more surgical instruments, and a stringer having two or more rod sections, wherein a first rod section is configured to be inserted in the first ring handle (R 1) of the one or more surgical instruments and a second rod section is configured to be inserted in the second ring handle (R 2) of the one or more surgical instruments, characterized in that said surface further comprises two or more valleys formed in parallel in said surface and configured to receive the first ring handle (R 1) and the second ring handle (R 2) of the one or more surgical instruments; and said stringer further comprises two or more angle sections (104A, 104B, 114A, 114B), each said angle section (104A, 104B, 114A, 114B) configured having one or more slidable connector sections (130C, 130D, 130E, 130F), each said one or more slidable connector sections (130C, 130D, 130E, 130F) configured to extend and retract along at least one of said two or more rod sections (101A, 101B), and two or more releasable connectors (130A, 130B), each said releasable connector (130A, 130B) positioned between two of said two or more angle sections (104A, 104B, 114A, 114B). a surface configured to support the one or more surgical instruments, and a stringer having two or more rod sections, wherein a first rod section is configured to be inserted in the first ring handle (R 1) of the one or more surgical instruments and a second rod section is configured to be inserted in the second ring handle (R 2) of the one or more surgical instruments, characterized in that said surface further comprises two or more valleys formed in parallel in said surface and configured to receive the first ring handle (R 1) and the second ring handle (R 2) of the one or more surgical instruments; and said stringer further comprises two or more angle sections (104A, 104B, 114A, 114B), each said angle section (104A, 104B, 114A, 114B) configured having one or more slidable connector sections (130C, 130D, 130E, 130F), each said one or more slidable connector sections (130C, 130D, 130E, 130F) configured to extend and retract along at least one of said two or more rod sections (101A, 101B), and two or more releasable connectors (130A, 130B), each said releasable connector (130A, 130B) positioned between two of said two or more angle sections (104A, 104B, 114A, 114B).
A frothing unit for frothing milk or a milk-air mixture, comprising • a steam supply line for supplying steam or a steam-air mixture, comprising a steam nozzle having a nozzle outlet, • a milk supply line for supplying milk or a milk-air mixture, • a mixing unit in the form of a hollow profile having a first flow region having an inner cross-sectional area and a second flow region having an inner cross-sectional area, the inner cross-sectional area of the second flow region being smaller than the inner cross-sectional area of the first flow region, • an outlet line, which directly adjoins the second flow region, having an outlet opening for the milk froth, wherein the steam supply line, the milk supply line and the mixing unit are connected to one another via a 3-way connecting element, and the steam nozzle is aligned axially with the mixing unit, characterized in that the milk supply line and the mixing unit consist of a hose, wherein the first flow region of the mixing unit has a length in the range from 20 to 100 mm, and wherein the second flow region of the mixing unit has a length in the range from 100 to 1200 mm. • a steam supply line for supplying steam or a steam-air mixture, comprising a steam nozzle having a nozzle outlet, • a milk supply line for supplying milk or a milk-air mixture, • a mixing unit in the form of a hollow profile having a first flow region having an inner cross-sectional area and a second flow region having an inner cross-sectional area, the inner cross-sectional area of the second flow region being smaller than the inner cross-sectional area of the first flow region, • an outlet line, which directly adjoins the second flow region, having an outlet opening for the milk froth, wherein the steam supply line, the milk supply line and the mixing unit are connected to one another via a 3-way connecting element, and the steam nozzle is aligned axially with the mixing unit, characterized in that the milk supply line and the mixing unit consist of a hose, wherein the first flow region of the mixing unit has a length in the range from 20 to 100 mm, and wherein the second flow region of the mixing unit has a length in the range from 100 to 1200 mm.
Fitting for the support of a catenary comprising: - a console of which a proximal part is suitable to be connected to means for supporting, in particular a post, and of which a distal part is suited to be connected to a catenary, with the console comprising a lower part facing the catenary when it is being used, and - means (5, 6) for discharging raindrops integrated into the console, the means for discharging (5, 6) comprising a plurality of discharging teeth, formed on the lower part of the console - a console of which a proximal part is suitable to be connected to means for supporting, in particular a post, and of which a distal part is suited to be connected to a catenary, with the console comprising a lower part facing the catenary when it is being used, and - means (5, 6) for discharging raindrops integrated into the console, the means for discharging (5, 6) comprising a plurality of discharging teeth, formed on the lower part of the console