mhurhangee/patent-ind-claim-en huggingface dataset:
An inline inspection (ILI) tool body comprising: a plurality of composite magnetic field systems , each composite magnetic field system of the plurality containing two magnetic circuits arranged relative to one another to provide a resultant magnetic field (C) at an angle α relative to an axial direction of the ILI tool body, where 0° <α < 90°, 0° being the axial direction, 90° being a transverse direction, the resultant magnetic field including a first magnetic field and a second magnetic field and being a vector addition of the first and second magnetic fields ; each of the two magnetic circuits including a first magnet and a second magnet spaced apart from each other, and arranged such that a pole (61N or 61S) of the first magnet is opposite in polarity to a spaced apart pole (61S or 61N) of the second magnet, each of the first and second magnets oriented at an angle different than the angle α of the resultant magnetic field; a first of the two magnetic circuits providing the first magnetic field in a first direction, a second of the two magnetic circuits providing the second magnetic field in a second direction different than that of the first magnetic field; wherein, one of the first and second directions is the axial direction and another one of the first and second directions is the transverse direction. a plurality of composite magnetic field systems , each composite magnetic field system of the plurality containing two magnetic circuits arranged relative to one another to provide a resultant magnetic field (C) at an angle α relative to an axial direction of the ILI tool body, where 0° <α < 90°, 0° being the axial direction, 90° being a transverse direction, the resultant magnetic field including a first magnetic field and a second magnetic field and being a vector addition of the first and second magnetic fields ; each of the two magnetic circuits including a first magnet and a second magnet spaced apart from each other, and arranged such that a pole (61N or 61S) of the first magnet is opposite in polarity to a spaced apart pole (61S or 61N) of the second magnet, each of the first and second magnets oriented at an angle different than the angle α of the resultant magnetic field; a first of the two magnetic circuits providing the first magnetic field in a first direction, a second of the two magnetic circuits providing the second magnetic field in a second direction different than that of the first magnetic field; wherein, one of the first and second directions is the axial direction and another one of the first and second directions is the transverse direction.
A spermidine synthase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein alanine, which is an amino acid corresponding to position 213 of SEQ ID NO: 3, is substituted with valine.
A surgical tool , comprising: an enclosure ; a rotatable knob retained by, and protruding from, the enclosure; a tube having a proximal end retained by the enclosure, the tube having an axis of symmetry ; and a Geneva drive retained within the enclosure, the Geneva drive comprising a drive wheel fixedly attached to the rotatable knob and a driven wheel fixedly attached to the proximal end of the tube, so that an axis of rotation of the driven wheel coincides with the axis of symmetry of the tube, whereby a continuous rotation of the rotatable knob causes the tube to rotate about the axis of symmetry in discrete angular steps. an enclosure ; a rotatable knob retained by, and protruding from, the enclosure; a tube having a proximal end retained by the enclosure, the tube having an axis of symmetry ; and a Geneva drive retained within the enclosure, the Geneva drive comprising a drive wheel fixedly attached to the rotatable knob and a driven wheel fixedly attached to the proximal end of the tube, so that an axis of rotation of the driven wheel coincides with the axis of symmetry of the tube, whereby a continuous rotation of the rotatable knob causes the tube to rotate about the axis of symmetry in discrete angular steps.
A method for manufacturing a container body of a tube, comprising the following steps: - imprinting a sheet material on one of its surfaces with an ink, - bending the imprinted sheet material into the shape of the container body of the tube, with the imprinted surface on the outside, - sealing adjacent edges of the bent imprinted sheet material, and - coating the bent imprinted sheet material with a transparent plastics sheathing by extrusion, characterized in that the material of the plastics sheathing and/or the ink used for imprinting are chosen such that the plastics sheathing does not adhere to the imprint , resulting in one or more ventilation areas being formed between the imprinted sheet material and the plastics sheathing . - imprinting a sheet material on one of its surfaces with an ink, - bending the imprinted sheet material into the shape of the container body of the tube, with the imprinted surface on the outside, - sealing adjacent edges of the bent imprinted sheet material, and - coating the bent imprinted sheet material with a transparent plastics sheathing by extrusion,
A toner composition comprising: toner particles having a core and a shell disposed over the core, wherein the core comprises: an optional first antiplasticizer; a first styrene-acrylate resin; and the shell comprises: an optional second antiplasticizer; and a second styrene-acrylate resin; wherein the toner particles include at least one of the first antiplasticizer or the second antiplasticizer and further wherein at least one of the first antiplasticizer or the second antiplasticizer comprises a purine derivative. toner particles having a core and a shell disposed over the core, wherein the core comprises: an optional first antiplasticizer; a first styrene-acrylate resin; and an optional first antiplasticizer; a first styrene-acrylate resin; and the shell comprises: an optional second antiplasticizer; and a second styrene-acrylate resin; an optional second antiplasticizer; and a second styrene-acrylate resin;
A method for producing a recombinant protein, comprising: a high-temperature culture step of culturing at 32°C or higher a Brevibacillus bacterium that contains a gene encoding the recombinant protein; and a low-temperature culture step of culturing the Brevibacillus bacterium at a temperature lower than 32°C after the high-temperature culture step, wherein a shift from the high-temperature culture step to the low-temperature culture step is made between the early and mid-exponential growth phases of the Brevibacillus bacterium, wherein the recombinant protein is an antibody-binding protein. a high-temperature culture step of culturing at 32°C or higher a Brevibacillus bacterium that contains a gene encoding the recombinant protein; and a low-temperature culture step of culturing the Brevibacillus bacterium at a temperature lower than 32°C after the high-temperature culture step, wherein a shift from the high-temperature culture step to the low-temperature culture step is made between the early and mid-exponential growth phases of the Brevibacillus bacterium, wherein the recombinant protein is an antibody-binding protein.
A skew rolling apparatus comprising: a skew pierce rolling mill for pierce rolling; and a skew outside-diameter mill following the skew pierce rolling mill, the skew pierce rolling mill having a plurality of pierce rolling rolls provided circumferentially around a pass line, a plug provided between the plurality of pierce rolling rolls, and a bar holding the plug, the skew outside-diameter mill having a plurality of outside-diameter rolling rolls provided circumferentially around the pass line, characterized in that the skew rolling apparatus is controlled such as to satisfy the following formulae and , 3 × 1.2 PO + 2 G ≤ LS ≤ 0 .8BL 1.2 PO + 2 G > DS ≥ DB + 2 G where LS is the distance (mm) between a rolling zone of the pierce rolling rolls and a rolling zone of the outside-diameter rolling rolls , DS is the roll gap between the plurality of outside-diameter rolling rolls when rolling a pierce-rolled seamless pipe shell , PO is the outside diameter (mm) of the plug, G is the gap (mm) between the plug and the pierce rolling rolls , BL is the length (mm) of the bar , and DB is the outside diameter (mm) of the bar, and wherein the gap G is calculated by subtracting the outside diameter PO of the plug from the roll gap DS of the outside-diameter rolling rolls, and dividing the calculated value by 2. a skew pierce rolling mill for pierce rolling; and a skew outside-diameter mill following the skew pierce rolling mill, the skew pierce rolling mill having a plurality of pierce rolling rolls provided circumferentially around a pass line, a plug provided between the plurality of pierce rolling rolls, and a bar holding the plug, the skew outside-diameter mill having a plurality of outside-diameter rolling rolls provided circumferentially around the pass line, characterized in that the skew rolling apparatus is controlled such as to satisfy the following formulae and , 3 × 1.2 PO + 2 G ≤ LS ≤ 0 .8BL 1.2 PO + 2 G > DS ≥ DB + 2 G where LS is the distance (mm) between a rolling zone of the pierce rolling rolls and a rolling zone of the outside-diameter rolling rolls , DS is the roll gap between the plurality of outside-diameter rolling rolls when rolling a pierce-rolled seamless pipe shell , PO is the outside diameter (mm) of the plug, G is the gap (mm) between the plug and the pierce rolling rolls , BL is the length (mm) of the bar , and DB is the outside diameter (mm) of the bar, and wherein the gap G is calculated by subtracting the outside diameter PO of the plug from the roll gap DS of the outside-diameter rolling rolls, and dividing the calculated value by 2.
Reversible belt tensioner, comprising - a belt shaft, and - an electric motor unit for driving the belt shaft, the electric motor unit comprising an electric motor having a rotor, the rotor being coupled to a shaft , and the shaft being drivable by the electric motor to a rotational movement, the shaft of the electric motor unit being coupled to the belt shaft, the electric motor unit having at least one acceleration device for accelerating the shaft , the acceleration device having at least one pyrotechnic drive, the pyrotechnic drive being able to act directly on the shaft of the electric motor unit, which electric motor unit is driven directly by the electric motor , so that the pyrotechnic drive can be used to accelerate the shaft of the electric motor out of a rest position, the belt shaft subsequently being able to be accelerated to operating speed by means of the electric motor, characterized in that the acceleration device comprises at least one gear mechanism which is or can be coupled to the shaft , the gear mechanism comprising a first gear element which can be driven into a linear movement by means of a pyrotechnic gas generator and a second gear element which can be driven into a rotational movement by means of the first gear element. - a belt shaft, and - an electric motor unit for driving the belt shaft, the electric motor unit comprising an electric motor having a rotor, the rotor being coupled to a shaft , and the shaft being drivable by the electric motor to a rotational movement, the shaft of the electric motor unit being coupled to the belt shaft, the electric motor unit having at least one acceleration device for accelerating the shaft , the acceleration device having at least one pyrotechnic drive, the pyrotechnic drive being able to act directly on the shaft of the electric motor unit, which electric motor unit is driven directly by the electric motor , so that the pyrotechnic drive can be used to accelerate the shaft of the electric motor out of a rest position, the belt shaft subsequently being able to be accelerated to operating speed by means of the electric motor, characterized in that the acceleration device comprises at least one gear mechanism which is or can be coupled to the shaft , the gear mechanism comprising a first gear element which can be driven into a linear movement by means of a pyrotechnic gas generator and a second gear element which can be driven into a rotational movement by means of the first gear element.
A magenta toner comprising a binder resin and a magenta colorant, wherein a compound A and a compound B are contained as the magenta colorant and the compound A is C.I. Pigment Red 146 or C.I. Pigment Red 147, and the compound B is C.I. Solvent Violet 59, and wherein a total content of the compound A and the compound B is from 3 to 30 parts by mass with respect to 100 parts by mass of the binder resin, and a mass ratio of the content of the compound A to the content of the compound B (compound A/compound B) is from 0.8 to 20. wherein a compound A and a compound B are contained as the magenta colorant and the compound A is C.I. Pigment Red 146 or C.I. Pigment Red 147, and the compound B is C.I. Solvent Violet 59, and wherein a total content of the compound A and the compound B is from 3 to 30 parts by mass with respect to 100 parts by mass of the binder resin, and a mass ratio of the content of the compound A to the content of the compound B (compound A/compound B) is from 0.8 to 20.
An apparatus comprising: decoder circuitry configured to decode: an instruction to include an opcode defining at least one operation to be performed and at least two fields to identify a first operand and a second operand; wherein the operands are to store data in a floating-point encoding format of fixed width that is to include fields for a sign bit, a self-identifying field identifying a bit-length used to represent an exponent and identifying, based on the bit-length, a numerical exponent range of non-overlapping numerical exponent ranges, and a mantissa, and the decoder circuitry is further configured to decode, based at least on the self-identifying field, identified first and second operands into at least two real values, each real value having a standard exponent and mantissa field; and the apparatus further comprises an execution circuitry configured to execute the decoded instruction according to the defined at least one operation to be performed using the at least two real values of the identified first and second operands. an instruction to include an opcode defining at least one operation to be performed and at least two fields to identify a first operand and a second operand; wherein the operands are to store data in a floating-point encoding format of fixed width that is to include fields for a sign bit, a self-identifying field identifying a bit-length used to represent an exponent and identifying, based on the bit-length, a numerical exponent range of non-overlapping numerical exponent ranges, and a mantissa, and the decoder circuitry is further configured to decode, based at least on the self-identifying field, identified first and second operands into at least two real values, each real value having a standard exponent and mantissa field; and the apparatus further comprises an execution circuitry configured to execute the decoded instruction according to the defined at least one operation to be performed using the at least two real values of the identified first and second operands.
An aerosol generating apparatus (100A; 100B), comprising: a power supply ; a load configured to generate heat upon receipt of electric power from the power supply and atomize an aerosol source; an element that is used to acquire a value related to a temperature of the load ; a circuit configured to electrically connect the power supply and the load ; a storage configured to store the aerosol source; a retention unit configured to retain an aerosol source supplied from the storage to allow the retained aerosol source to be in a feasible state of being heated by the load ; and a control unit configured to distinguish between a first state of the aerosol generating apparatus (100A; 100B) in which the aerosol source stored in the storage is insufficient in quantity, and a second state of the aerosol generating apparatus (100A; 100B) in which the storage is capable of supplying the aerosol source while the aerosol source retained by the retention unit is insufficient in quantity, on a basis of a change in the value related to the temperature of the load after functioning of the circuit , the aerosol generating apparatus being characterised in that the circuit includes a first path (202; 302) and a second path (204; 304) that are connected in parallel to the power supply and the load , the first path (202; 302) being used to atomize the aerosol source, and the second path (204; 304) being used to acquire the value related to the temperature of the load ; and the control unit is configured to cause the first path (202; 302) and the second path (204; 304) to alternately function. a power supply ; a load configured to generate heat upon receipt of electric power from the power supply and atomize an aerosol source; an element that is used to acquire a value related to a temperature of the load ; a circuit configured to electrically connect the power supply and the load ; a storage configured to store the aerosol source; a retention unit configured to retain an aerosol source supplied from the storage to allow the retained aerosol source to be in a feasible state of being heated by the load ; and a control unit configured to distinguish between a first state of the aerosol generating apparatus (100A; 100B) in which the aerosol source stored in the storage is insufficient in quantity, and a second state of the aerosol generating apparatus (100A; 100B) in which the storage is capable of supplying the aerosol source while the aerosol source retained by the retention unit is insufficient in quantity, on a basis of a change in the value related to the temperature of the load after functioning of the circuit , the aerosol generating apparatus being characterised in that the circuit includes a first path (202; 302) and a second path (204; 304) that are connected in parallel to the power supply and the load , the first path (202; 302) being used to atomize the aerosol source, and the second path (204; 304) being used to acquire the value related to the temperature of the load ; and the control unit is configured to cause the first path (202; 302) and the second path (204; 304) to alternately function.
A system comprising: a leadless pacing device comprising: a stimulation module configured to generate pacing pulses; a sensing module ; a processing module ; a housing comprising a conductive portion, wherein the housing is configured to be implanted within a chamber of a heart of a patient and encloses the stimulation module, the sensing module, and the processing module; and a first electrode electrically coupled to the sensing module and the stimulation module; and a sensing extension extending from the housing and comprising: a self-supporting body extending from the housing; a curved proximal portion; and a second electrode located at a proximal end of and carried by the self-supporting body electrically connected to the sensing module and the stimulation module via the conductive portion of the housing, wherein the processing module is configured to control the sensing module to sense electrical cardiac activity via the second electrode, the system further comprising an eyelet at a proximal end of the sensing extension. a leadless pacing device comprising: a stimulation module configured to generate pacing pulses; a sensing module ; a processing module ; a housing comprising a conductive portion, wherein the housing is configured to be implanted within a chamber of a heart of a patient and encloses the stimulation module, the sensing module, and the processing module; and a first electrode electrically coupled to the sensing module and the stimulation module; and a stimulation module configured to generate pacing pulses; a sensing module ; a processing module ; a housing comprising a conductive portion, wherein the housing is configured to be implanted within a chamber of a heart of a patient and encloses the stimulation module, the sensing module, and the processing module; and a first electrode electrically coupled to the sensing module and the stimulation module; and a sensing extension extending from the housing and comprising: a self-supporting body extending from the housing; a curved proximal portion; and a second electrode located at a proximal end of and carried by the self-supporting body electrically connected to the sensing module and the stimulation module via the conductive portion of the housing, a self-supporting body extending from the housing; a curved proximal portion; and a second electrode located at a proximal end of and carried by the self-supporting body electrically connected to the sensing module and the stimulation module via the conductive portion of the housing, wherein the processing module is configured to control the sensing module to sense electrical cardiac activity via the second electrode, the system further comprising an eyelet at a proximal end of the sensing extension.
A printing system carriage comprising: a plurality of printheads installed in the carriage, the plurality of printheads comprising a moveable printhead that, within the carriage, is movable with respect to the other printheads from the plurality of printheads ; and a positioning mechanism configured to move the movable printhead from a first printhead position to a second printhead position in response to a triggering signal; and a controller configured to generate the triggering signal; characterized in that the controler is configured to: derive a number of passes of the carriage from a print mode selection; divide each printhead from the plurality of printheads into a plurality of segments based on the number of passes; identify that a segment of the moveable printhead segments is out of phase in respect to a segment from another one of the plurality of printheads ; and issue the triggering signal; and wherein the positioning mechanism is configured to move the moveable printhead from the first printhead position to the second printhead position upon receipt of the triggering signal. a plurality of printheads installed in the carriage, the plurality of printheads comprising a moveable printhead that, within the carriage, is movable with respect to the other printheads from the plurality of printheads ; and a positioning mechanism configured to move the movable printhead from a first printhead position to a second printhead position in response to a triggering signal; and a controller configured to generate the triggering signal; characterized in that the controler is configured to: derive a number of passes of the carriage from a print mode selection; divide each printhead from the plurality of printheads into a plurality of segments based on the number of passes; identify that a segment of the moveable printhead segments is out of phase in respect to a segment from another one of the plurality of printheads ; and issue the triggering signal; and wherein the positioning mechanism is configured to move the moveable printhead from the first printhead position to the second printhead position upon receipt of the triggering signal. derive a number of passes of the carriage from a print mode selection; divide each printhead from the plurality of printheads into a plurality of segments based on the number of passes; identify that a segment of the moveable printhead segments is out of phase in respect to a segment from another one of the plurality of printheads ; and issue the triggering signal; and wherein the positioning mechanism is configured to move the moveable printhead from the first printhead position to the second printhead position upon receipt of the triggering signal.