mhurhangee/patent-ind-claim-en huggingface dataset:
A wire-winding machine, comprising: - a station for winding the wire into a reel comprising a spindle rotatable around an axis of rotation to draw the wire and a spool removably anchored on said spindle and enclosed between a starting stroke flange and an end stroke flange for winding said wire into a reel; - a counteracting tool adapted to operate against the last wound coil to keep the coils mutually juxtaposed; wherein said counteracting tool is controlled by electrical moving means adapted to move it linearly and axially in the winding direction of the coils with a predetermined pitch for each revolution of said spindle; characterized by comprising computation means adapted to calculate the real diameter of the wire being wound and its natural pitch as function of the ratio between the movement of said tool along the axis of said spindle and the number of revolutions of said spindle for the subsequent calculation of said pitch. - a station for winding the wire into a reel comprising a spindle rotatable around an axis of rotation to draw the wire and a spool removably anchored on said spindle and enclosed between a starting stroke flange and an end stroke flange for winding said wire into a reel; - a counteracting tool adapted to operate against the last wound coil to keep the coils mutually juxtaposed;
A system for delivering a therapeutic amount of nitric oxide to a patient, comprising: a ventilator for delivering a gas mixture of oxygen and air; a liquid reservoir containing dinitrogen tetroxide ; a tube from the reservoir configured to connect to the gas supply being delivered to the patient, the tube having a bore size of about 25 microns or less; a first receptacle coupled to the tube , wherein the first receptacle comprises a surface-activated material saturated with an aqueous solution of an antioxidant for converting nitrogen dioxide into nitric oxide; and a patient interface coupled to the first receptacle , wherein the first receptacle is configured to convert nitrogen dioxide into nitric oxide prior to reaching the patient interface ; the system further comprising a gas mixer in communication with the reservoir and the gas mixture for ensuring proper mixing. a ventilator for delivering a gas mixture of oxygen and air; a liquid reservoir containing dinitrogen tetroxide ; a tube from the reservoir configured to connect to the gas supply being delivered to the patient, the tube having a bore size of about 25 microns or less; a first receptacle coupled to the tube , wherein the first receptacle comprises a surface-activated material saturated with an aqueous solution of an antioxidant for converting nitrogen dioxide into nitric oxide; and a patient interface coupled to the first receptacle , wherein the first receptacle is configured to convert nitrogen dioxide into nitric oxide prior to reaching the patient interface ; the system further comprising a gas mixer in communication with the reservoir and the gas mixture for ensuring proper mixing.
A linker-drug intermediate of Formula I Ant-L-(Z) m -X I wherein Ant is selected from the structure: where the wavy line indicates the attachment to L; L is a linker selected from -CH 2 O-, -CH 2 N(R)-, -N(R)-, -N(R)(C 1 -C 12 alkylene)-, -N(R)(C 2 -C 8 alkenylene)-, -N(R)(C 2 -C 8 alkynylene)-, -N(R)(CH 2 CH 2 O) n -, and the structure: where the wavy lines indicate the attachments to Ant and Z; and Z is an optional spacer selected from -CH 2 C(O)-, -CH 2 C(O)NR(C 1 -C 12 alkylene)-, and the structure: where the wavy lines indicate the attachments to L and X; R is H, C 1 -C 12 alkyl, or C 6 -C 20 aryl; Z 1 is selected from -(C 1 -C 12 alkylene)-, -(C 2 -C 8 alkenylene)-, -(C 2 -C 8 alkynylene)-, -O(C 1 -C 12 alkylene)-, -O(C 2 -C 8 alkenylene)-, -O(C 2 -C 8 alkynylene)-, and -(CH 2 CH 2 O) n -; m is 0 or 1; n is 1 to 6; X is pyridyl disulfide where pyridyl is optionally substituted with one or more groups selected from NO 2 , Cl, F, CN and Br; and alkylene, alkenylene, alkynylene, alkyl, and aryl are optionally substituted with one or more groups selected from F, Cl, Br, N(CH 3 ) 2 , and OCH 3 .
Container for spherical products, particularly fruit, that is designed for storing pieces with a near-spherical configuration, wherein it is comprised of a rectangular laminar body made of cardboard, paper or paperboard defining a main central sector , as well as two lateral sectors that are defined by respective longitudinal folding lines , with the main sector comprising a closing tab on one of the ends thereof in order to roll said sector on the pieces of fruit contained therein and to fix it to the opposite end thereof, with the lateral sectors comprising adhesive areas in order to fix the ends thereof to the central sector , wherein the container comprises die cut and/or perforation lines for opening the closed container, characterised in that the lateral sectors comprise arched folding lines determining lateral retention walls for the fruits contained therein when the container is unfolded.
A hemming device for use in a metal forming operation on a workpiece, the hemming device comprising: an elongate shaft extending along a longitudinal axis, the shaft defining an internal cavity; a cartridge movable relative to the shaft along the longitudinal axis; at least one biasing member engaged with the cartridge; a housing connected to the cartridge and movable with the cartridge along the longitudinal axis relative to the shaft; and a workpiece forming member connected to the housing; said device being characterized in that said cartridge has a stop positioned in shaft internal cavity, and in that said device comprises a first biasing member and a second biasing member respectively abuttingly engaging opposite sides of the stop along the longitudinal axis, so that, on application of a force to the shaft in a pushing hemming operation on a workpiece, a resistive biasing force to maintain the forming member in contact with the workpiece is provided by the first biasing member , and on application of a force to the shaft in a pulling operation on a workpiece, a resistive biasing force to maintain the forming member in contact with the workpiece is provided by the second biasing member . an elongate shaft extending along a longitudinal axis, the shaft defining an internal cavity; a cartridge movable relative to the shaft along the longitudinal axis; at least one biasing member engaged with the cartridge; a housing connected to the cartridge and movable with the cartridge along the longitudinal axis relative to the shaft; and a workpiece forming member connected to the housing; said device being characterized in that said cartridge has a stop positioned in shaft internal cavity, and in that said device comprises a first biasing member and a second biasing member respectively abuttingly engaging opposite sides of the stop along the longitudinal axis, so that, on application of a force to the shaft in a pushing hemming operation on a workpiece, a resistive biasing force to maintain the forming member in contact with the workpiece is provided by the first biasing member , and on application of a force to the shaft in a pulling operation on a workpiece, a resistive biasing force to maintain the forming member in contact with the workpiece is provided by the second biasing member .
An enamel composition, comprising: 30 to 45 wt% of phosphorus pentoxide (P 2 O 5 ); 5 to 20 wt% of silicon dioxide (SiO 2 ); 15 to 30 wt% of aluminum oxide (Al 2 O 3 ); 10 to 20 wt% of zirconium dioxide (ZrO 2 ); 5 to 20 wt% of at least one of lithium oxide (Li 2 O), sodium oxide (Na 2 O), or potassium oxide (K 2 O); 5 to 15 wt% of boron trioxide (B 2 O 3 ); and 10 to 25 wt% of vanadium pentoxide (V 2 O 5 ). 30 to 45 wt% of phosphorus pentoxide (P 2 O 5 ); 5 to 20 wt% of silicon dioxide (SiO 2 ); 15 to 30 wt% of aluminum oxide (Al 2 O 3 ); 10 to 20 wt% of zirconium dioxide (ZrO 2 ); 5 to 20 wt% of at least one of lithium oxide (Li 2 O), sodium oxide (Na 2 O), or potassium oxide (K 2 O); 5 to 15 wt% of boron trioxide (B 2 O 3 ); and 10 to 25 wt% of vanadium pentoxide (V 2 O 5 ).
A fuel cell system comprising: a cathode oxygen depletion (COD) heater disposed on a line through which cooling water flowing into a fuel cell stack circulates and configured to heat the cooling water or consume residual power of the fuel cell stack; and a controller configured to determine power consumption based on a target heating amount of the COD heater and control an operation of the COD heater based on the determined power consumption, wherein the controller is further configured to determine the power consumption based on the target heating amount for consuming the residual power of the fuel cell stack until an output voltage of the fuel cell stack becomes less than a reference voltage in a shutdown mode. a cathode oxygen depletion (COD) heater disposed on a line through which cooling water flowing into a fuel cell stack circulates and configured to heat the cooling water or consume residual power of the fuel cell stack; and a controller configured to determine power consumption based on a target heating amount of the COD heater and control an operation of the COD heater based on the determined power consumption, wherein the controller is further configured to determine the power consumption based on the target heating amount for consuming the residual power of the fuel cell stack until an output voltage of the fuel cell stack becomes less than a reference voltage in a shutdown mode.
A fall-protection counterweight apparatus for counterbalancing the weight of a user of a fall-protection element with a mast , in which the counterweight apparatus comprises a mast receiving module and a base module provided with a plurality of support legs, wherein the base module is formed by a base plate provided on its lower face with a plurality of leveling support legs for the horizontal arrangement of the base plate , and provided on its upper face with a plurality of projecting elements extending from the base plate in the direction perpendicular to the upper face of the base plate for fixing counterweight elements arranged on the base plate , and in that the mast receiving module is arranged on the upper face of the base plate and comprises a tubular body , the hollow of which is sized for tightly housing the mast of a fall-protection element .
A wiper (10; 10'; 10"; 10′′′; 10 IV ) for a nozzle plate (22; 22'), the wiper having a body arranged to be moved over a nozzle face of the nozzle plate (22; 22') for cleaning said nozzle face of the nozzle plate (22; 22') in a condition in which at least a part of the body is in engagement with the nozzle plate, the nozzle face being a portion of the nozzle plate in which nozzles are arranged in a linear array, the body having at least one active wiper edge that, in use, extends in a direction in parallel with the nozzle face and non-parallel with a direction (A, B) of movement of the body relative to the nozzle plate, wherein the body has at least two support parts that, in use, are offset from the active wiper edge in the direction (A, B) of movement, wherein the wiper is configured so that it can be positioned to perform contactless wiping, in which the support parts engage the nozzle plate (22; 22') at a position besides the nozzle face during the movement of the body over the nozzle face in one direction and in which the active wiper edge does not contact the nozzle face so as to perform contactless wiping, and wherein the wiper is configured so that it can be positioned to perform contact wiping, in which the active wiper edge contacts the nozzle face so as to perform contact wiping.
A data transmission method, comprising: obtaining, by a centralized unit, CU , of a 5G network, measurement results of channel transmission qualities of a plurality of channels from one or more distributed units, DUs, of the 5G network, wherein a data duplication transmission function is configured on the plurality of channels to support transmission of duplicated data on the plurality of channels (S602); determining, by the CU , according to the obtained measurement results, whether to activate the data duplication transmission function (S604); and performing, by the CU , a data transmission with a terminal on the plurality of channels according to the determination (S606). obtaining, by a centralized unit, CU , of a 5G network, measurement results of channel transmission qualities of a plurality of channels from one or more distributed units, DUs, of the 5G network, wherein a data duplication transmission function is configured on the plurality of channels to support transmission of duplicated data on the plurality of channels (S602); determining, by the CU , according to the obtained measurement results, whether to activate the data duplication transmission function (S604); and performing, by the CU , a data transmission with a terminal on the plurality of channels according to the determination (S606).
An antenna pattern for being used in a UHF frequency band RFID inlay, comprising: a substrate ; a dipole antenna formed on a front surface of the substrate with a metal foil; and a sub-element formed on a back surface of the substrate with the metal foil, wherein the dipole antenna is provided with: a loop portion having an IC chip connecting portion to which an IC chip is connected; a pair of meanders configured to respectively extend from the loop portion so as to be line symmetrical by being connected to the loop portion at end portions on one side; and capacitance hats respectively connected to the pair of meanders , wherein, the sub-element being formed such that a part thereof overlaps with the dipole antenna through the substrate , characterized in that the sub-element has a pair of U-shapes, the sub-element being arranged such that opening sides of the U-shapes face with each other so as to be line symmetrical. a substrate ; a dipole antenna formed on a front surface of the substrate with a metal foil; and a sub-element formed on a back surface of the substrate with the metal foil, wherein the dipole antenna is provided with: a loop portion having an IC chip connecting portion to which an IC chip is connected; a pair of meanders configured to respectively extend from the loop portion so as to be line symmetrical by being connected to the loop portion at end portions on one side; and capacitance hats respectively connected to the pair of meanders , wherein, the sub-element being formed such that a part thereof overlaps with the dipole antenna through the substrate , characterized in that the sub-element has a pair of U-shapes, the sub-element being arranged such that opening sides of the U-shapes face with each other so as to be line symmetrical. a loop portion having an IC chip connecting portion to which an IC chip is connected; a pair of meanders configured to respectively extend from the loop portion so as to be line symmetrical by being connected to the loop portion at end portions on one side; and capacitance hats respectively connected to the pair of meanders , wherein, the sub-element being formed such that a part thereof overlaps with the dipole antenna through the substrate , characterized in that the sub-element has a pair of U-shapes, the sub-element being arranged such that opening sides of the U-shapes face with each other so as to be line symmetrical.
A micromechanical structure including at least one active element , the micromechanical structure comprising - a substrate , - at least one layer formed on the substrate forming at least part of the at least one active element , - mechanical contact areas through which the micromechanical structure can be connected to other structures like printed circuit boards and like, and - weakenings like trenches around the mechanical contact areas for eliminating the thermal mismatch between the active element of the micromechanical structure and the other structures , the micromechanical structure being a capacitive surface micromechanical pressure sensor structure including at least one sensor element as an active element , the micromechanical structure comprising to this end - a bottom electrode in a mechanical connection with the substrate , and - at least one top electrode electrically isolated and spaced apart by a first cavity from said bottom electrode , the top electrode being deformable under the pressure to be measured, wherein - the bottom electrode is released from the substrate , advantageously at least essentially in the vicinity of the cavity . - a substrate , - at least one layer formed on the substrate forming at least part of the at least one active element , - mechanical contact areas through which the micromechanical structure can be connected to other structures like printed circuit boards and like, and - weakenings like trenches around the mechanical contact areas for eliminating the thermal mismatch between the active element of the micromechanical structure and the other structures , the micromechanical structure being a capacitive surface micromechanical pressure sensor structure including at least one sensor element as an active element , the micromechanical structure comprising to this end - a bottom electrode in a mechanical connection with the substrate , and - at least one top electrode electrically isolated and spaced apart by a first cavity from said bottom electrode , the top electrode being deformable under the pressure to be measured, wherein - the bottom electrode is released from the substrate , advantageously at least essentially in the vicinity of the cavity .
Method for the correction of a time-dependent measurement signal (M), generated by means of a motor (1.1), coupled on the output side to a transmission (1.2), with respect to the effect of a variable operational load and a variable rpm, in which the following method steps are carried out: a) tapping a measurement signal (M) dependent on the torque of the motor-transmission unit , b) generating a direct component-free useful signal (N1) from the measurement signal (M), c) determining, in intervals, effective values from the measurement signal (M), d) generating a load-corrected useful signal (N2) by means of dividing in intervals the direct component-free useful signal (N1) by the interval-specific effective values, e) time-resolved determining of the rotational frequency (f) of the motor from the measurement signal (M), f) scaling the load-corrected useful signal (N2) to a medium rotational frequency for the generation of a corrected measurement signal (M corr ) with the aid of the determined rotational frequency (f), in that individual periods of the useful signal (N2) which exhibit a higher frequency are extended, while periods with a lower rotational frequency are compressed, and g) using the corrected measurement signal to detect errors in the motor-transmission unit. a) tapping a measurement signal (M) dependent on the torque of the motor-transmission unit , b) generating a direct component-free useful signal (N1) from the measurement signal (M), c) determining, in intervals, effective values from the measurement signal (M), d) generating a load-corrected useful signal (N2) by means of dividing in intervals the direct component-free useful signal (N1) by the interval-specific effective values, e) time-resolved determining of the rotational frequency (f) of the motor from the measurement signal (M), f) scaling the load-corrected useful signal (N2) to a medium rotational frequency for the generation of a corrected measurement signal (M corr ) with the aid of the determined rotational frequency (f), in that individual periods of the useful signal (N2) which exhibit a higher frequency are extended, while periods with a lower rotational frequency are compressed, and g) using the corrected measurement signal to detect errors in the motor-transmission unit.
A bandpass filter comprising: a first coupled resonator filter having a first resonator acoustically coupled to a second resonator, the first resonator being coupled to an input node (IN); and a second coupled resonator filter having a third resonator acoustically coupled to a fourth resonator, the fourth resonator being coupled to an output node (OUT), wherein the second resonator and the third resonator are in electrical communication by means of a first electrode of the second resonator being coupled to a first electrode of the third resonator through a first inductor or through a first capacitor and by means of a second electrode of the second resonator being directly coupled to a second electrode of the third resonator. a first coupled resonator filter having a first resonator acoustically coupled to a second resonator, the first resonator being coupled to an input node (IN); and a second coupled resonator filter having a third resonator acoustically coupled to a fourth resonator, the fourth resonator being coupled to an output node (OUT), wherein the second resonator and the third resonator are in electrical communication by means of a first electrode of the second resonator being coupled to a first electrode of the third resonator through a first inductor or through a first capacitor and by means of a second electrode of the second resonator being directly coupled to a second electrode of the third resonator.
Method for regulating the throwing behaviour of a centrifugal spreader for fertilizer, wherein a setpoint throwing distance (WWs1) is determined for a setpoint working width (AB), wherein one of a plurality of rotational speed stages (DZS) is set for at least one spreader disc , in order to approximate the actual throwing distance (WW1) to the setpoint throwing distance (WWs1), characterized in that an adapted setpoint throwing angle (AWWs1) for regulating an actual throwing angle (AWW1) is determined from the actual throwing distance (WW1), which setpoint throwing angle (AWWs1) counteracts in a compensatory fashion a deviation from the setpoint working width (AB), which is caused by the difference between the actual throwing distance (WW1) and the setpoint throwing distance (WWs1).