mhurhangee/patent-ind-claim-en huggingface dataset:
A resin composition for a non-aqueous electrolyte secondary battery comprising: a vinylidene fluoride copolymer having a constituent unit derived from vinylidene fluoride and a constituent unit derived from a fluorine-containing alkyl vinyl compound, wherein a melting point, measured in accordance with ASTM D3418, of the vinylidene fluoride copolymer is from 105°C to 125°C, the fluorine-containing alkyl vinyl compound is hexafluoropropylene, a mass fraction W a of the constituent unit derived from the fluorine-containing alkyl vinyl compound in the vinylidene fluoride copolymer, a degree of crystallinity D C of the vinylidene fluoride copolymer, and a degree of amorphicity D A of the vinylidene fluoride copolymer satisfy Equation : 4.7 ≤ W a × D C / D A ≤ 14 the mass fraction W a is 18 mass% or greater and 30 mass% or less, and wherein W a , D c and D a are measured as described in the specification. a vinylidene fluoride copolymer having a constituent unit derived from vinylidene fluoride and a constituent unit derived from a fluorine-containing alkyl vinyl compound, wherein a melting point, measured in accordance with ASTM D3418, of the vinylidene fluoride copolymer is from 105°C to 125°C, the fluorine-containing alkyl vinyl compound is hexafluoropropylene, a mass fraction W a of the constituent unit derived from the fluorine-containing alkyl vinyl compound in the vinylidene fluoride copolymer, a degree of crystallinity D C of the vinylidene fluoride copolymer, and a degree of amorphicity D A of the vinylidene fluoride copolymer satisfy Equation : 4.7 ≤ W a × D C / D A ≤ 14 the mass fraction W a is 18 mass% or greater and 30 mass% or less, and wherein W a , D c and D a are measured as described in the specification.
An apparatus for correcting a deviation between a plurality of transmission channels, wherein the plurality of transmission channels comprise a first transmission channel, a second transmission channel, and a correction coupling channel, a first endpoint of the correction coupling channel is connected to the first transmission channel, a second endpoint of the correction coupling channel is connected to the second transmission channel, and the apparatus comprises: a vector detection unit , configured to: when a first signal is fed at the first endpoint, detect a first signal vector based on a first feedback signal of the first transmission channel, and detect a second signal vector based on a second feedback signal of the second transmission channel, wherein the vector detection unit is further configured to: when a second signal is fed at the second endpoint, detect a third signal vector based on a third feedback signal of the first transmission channel, and detect a fourth signal vector based on a fourth feedback signal of the second transmission channel, wherein the second feedback signal and the third feedback signal are propagated in opposite directions on the correction coupling channel; and a processing unit , configured to determine a deviation correction value between the first transmission channel and the second transmission channel based on the detected signal vectors, wherein the deviation correction value is used to correct a deviation between the first transmission channel and the second transmission channel. a vector detection unit , configured to: when a first signal is fed at the first endpoint, detect a first signal vector based on a first feedback signal of the first transmission channel, and detect a second signal vector based on a second feedback signal of the second transmission channel, wherein the vector detection unit is further configured to: when a second signal is fed at the second endpoint, detect a third signal vector based on a third feedback signal of the first transmission channel, and detect a fourth signal vector based on a fourth feedback signal of the second transmission channel, wherein the second feedback signal and the third feedback signal are propagated in opposite directions on the correction coupling channel; and a processing unit , configured to determine a deviation correction value between the first transmission channel and the second transmission channel based on the detected signal vectors, wherein the deviation correction value is used to correct a deviation between the first transmission channel and the second transmission channel.
Product comprising a progressive power lens or a representation which is located on a data medium in the form of computer-readable data and is of the progressive power lens with instructions for the production thereof by way of an additive method, wherein the progressive power lens comprises - a front surface and a back surface, and - a spatially varying refractive index, the spatial variation of the refractive index defining a degree of complexity of the refractive index distribution, wherein - the front surface is in the form of a progressive surface embodied as a free-form surface or the back surface is in the form of a progressive surface embodied as a free-form surface, the free-form surface having a geometry defining a degree of complexity, the free-form surface having no point symmetry and no axial symmetry and no rotational symmetry and no symmetry with respect to a plane of symmetry, - the degree of complexity of the refractive index distribution in two or three spatial dimensions corresponds to the degree of complexity of the geometry of the free-form surface, characterized in that - the progressive power lens has an intermediate corridor as defined in DIN EN ISO 13666:2013, paragraph 14.1.25, and wherein - the front surface embodied as a free-form surface is designed such that the mean curvature is at a maximum in the intermediate corridor and/or - the back surface embodied as a free-form surface is designed such that the mean curvature is at a minimum in the intermediate corridor. - a front surface and a back surface, and - a spatially varying refractive index, the spatial variation of the refractive index defining a degree of complexity of the refractive index distribution, wherein - the front surface is in the form of a progressive surface embodied as a free-form surface or the back surface is in the form of a progressive surface embodied as a free-form surface, the free-form surface having a geometry defining a degree of complexity, the free-form surface having no point symmetry and no axial symmetry and no rotational symmetry and no symmetry with respect to a plane of symmetry, - the degree of complexity of the refractive index distribution in two or three spatial dimensions corresponds to the degree of complexity of the geometry of the free-form surface, - the progressive power lens has an intermediate corridor as defined in DIN EN ISO 13666:2013, paragraph 14.1.25, and wherein - the front surface embodied as a free-form surface is designed such that the mean curvature is at a maximum in the intermediate corridor and/or - the back surface embodied as a free-form surface is designed such that the mean curvature is at a minimum in the intermediate corridor.
A motorcycle tire comprising a tread portion provided with a block pattern, the block pattern comprising block groups (Gi) each consisting of at least five blocks (Bg) arranged along an oblique zone (X) so that the centroids (M) of the treads of the blocks (Bg) are positioned within the oblique zone (X), and groove parts (Q) are formed between the block groups (G) and extend linearly in the developed tread pattern, characterized in that the oblique zone (X) having a width (W) of not more than 4 mm, and the oblique zone (X) inclined at an angle α of from 1 to 10 degrees with respect to the tire circumferential direction; and the block pattern includes a plurality of the block groups (Gi) on each side of the tire equator (Co).
A double knuckle coupling , comprising an input shaft , said input shaft having a first end and a second end, said second end has a slot defining a tongue and groove configuration wherein each tongue has an arcuate recess ; an output shaft , said output shaft having a first end and a second end, said first end has a slot defining a tongue and groove configuration wherein each tongue has an arcuate recess ; a center coupling element , characterized in that said center coupling element has a first tongue configured to be received within said slot of said second end of said input shaft and a second tongue configured to be received within the slot of said first end of said output shaft ; wherein said center coupling element further comprises two pairs of knuckles , said knuckles having an arcuate surface configured to be received within said arcuate recesses of said tongues of said input shaft and said output shaft . an input shaft , said input shaft having a first end and a second end, said second end has a slot defining a tongue and groove configuration wherein each tongue has an arcuate recess ; an output shaft , said output shaft having a first end and a second end, said first end has a slot defining a tongue and groove configuration wherein each tongue has an arcuate recess ; a center coupling element , characterized in that said center coupling element has a first tongue configured to be received within said slot of said second end of said input shaft and a second tongue configured to be received within the slot of said first end of said output shaft ; wherein said center coupling element further comprises two pairs of knuckles , said knuckles having an arcuate surface configured to be received within said arcuate recesses of said tongues of said input shaft and said output shaft .
Fluid supply for a test printing system, - comprising a first fluid channel for supplying a first print head , - comprising a second fluid channel for supplying a second print head , - comprising a distribution device for connecting the first fluid channel to the second fluid channel and for separating the first fluid channel from the second fluid channel , - wherein the distribution device is designed such that in a first operating state of the distribution device, a fluid transfer takes place between the first fluid channel and the second fluid channel , and - wherein the distribution device is designed such that in a second operating state of the distribution device, no fluid transfer takes place between the first fluid channel and the second fluid channel . - comprising a first fluid channel for supplying a first print head , - comprising a second fluid channel for supplying a second print head , - comprising a distribution device for connecting the first fluid channel to the second fluid channel and for separating the first fluid channel from the second fluid channel , - wherein the distribution device is designed such that in a first operating state of the distribution device, a fluid transfer takes place between the first fluid channel and the second fluid channel , and - wherein the distribution device is designed such that in a second operating state of the distribution device, no fluid transfer takes place between the first fluid channel and the second fluid channel .
A method of feedthrough protection and overcurrent protection of a sealed compressor used in a transport climate control system that provides climate control within a climate controlled space of a transport unit , the transport climate control system including a climate control circuit with the sealed compressor, the sealed compressor including an outer housing and an electrical motor within the outer housing, the method comprising: operating the sealed compressor to compress a working fluid by supplying electrical power to the electric motor of the sealed compressor via a sealed electrical feedthrough in the outer housing of the sealed compressor ; detecting an operating parameter of the sealed electrical feedthrough ; determining whether the sealed electrical feedthrough is in a melting condition based on the detected operating parameter; and adjusting operation of the climate control circuit upon determining that the sealed electrical feedthrough is in the melting condition until the sealed electrical feedthrough is no longer in the melting condition . operating the sealed compressor to compress a working fluid by supplying electrical power to the electric motor of the sealed compressor via a sealed electrical feedthrough in the outer housing of the sealed compressor ; detecting an operating parameter of the sealed electrical feedthrough ; determining whether the sealed electrical feedthrough is in a melting condition based on the detected operating parameter; and adjusting operation of the climate control circuit upon determining that the sealed electrical feedthrough is in the melting condition until the sealed electrical feedthrough is no longer in the melting condition .
A radiofrequency (RF) coil array for a magnetic resonance examination system, the RF coil array comprising: - multiple RF coil elements (16-1... 16-4), - sets, in particular pairs, of transformers arranged between adjacent RF coil elements, wherein transformers of said sets are configured for having a mutual coupling which compensates for a mutual coupling between the adjacent RF coil elements and wherein - the multiple coil elements are arranged in a two-dimensional pattern that is spanned by a first and a second principal axis, the two-dimensional pattern having mutually transverse diagonal axes (103,1, 103-2) each having an orientation between the first and second principal axes (101-1, 101-2), - a first transformer of one of said sets configured for decoupling the coil elements offset along the first diagonal axis, - a second transformer of the one of said sets configured for decoupling the coil elements offset along the second diagonal axis, characterised in that the first and second transformers are coupled to compensate said mutual coupling between coil elements offset along the second principal axis. - multiple RF coil elements (16-1... 16-4), - sets, in particular pairs, of transformers arranged between adjacent RF coil elements, wherein transformers of said sets are configured for having a mutual coupling which compensates for a mutual coupling between the adjacent RF coil elements and wherein - the multiple coil elements are arranged in a two-dimensional pattern that is spanned by a first and a second principal axis, the two-dimensional pattern having mutually transverse diagonal axes (103,1, 103-2) each having an orientation between the first and second principal axes (101-1, 101-2), - a first transformer of one of said sets configured for decoupling the coil elements offset along the first diagonal axis, - a second transformer of the one of said sets configured for decoupling the coil elements offset along the second diagonal axis, characterised in that the first and second transformers are coupled to compensate said mutual coupling between coil elements offset along the second principal axis.
A vehicle seat comprising: a seat base ; a backrest ; a seat base track arrangement comprising a fixed track and a moveable track that is moveable along the fixed track , the fixed track being connected to a vehicle seat support and the moveable track being connected to the seat base ; a link arm and a seat base pivot connection between the link arm and the seat base ; characterised in that the vehicle seat comprises: a backrest track arrangement comprising a backrest fixed track and a backrest moveable track that is moveable along the backrest fixed track , the backrest fixed track being connected to a vehicle backrest support ; and a link arm and backrest pivot connection between the link arm and the backrest and the backrest moveable track . a seat base ; a backrest ; a seat base track arrangement comprising a fixed track and a moveable track that is moveable along the fixed track , the fixed track being connected to a vehicle seat support and the moveable track being connected to the seat base ; a link arm and a seat base pivot connection between the link arm and the seat base ; a backrest track arrangement comprising a backrest fixed track and a backrest moveable track that is moveable along the backrest fixed track , the backrest fixed track being connected to a vehicle backrest support ; and a link arm and backrest pivot connection between the link arm and the backrest and the backrest moveable track .
A method for optimising energy usage at a hammering drilling arrangement, the method comprising the steps: - determining an acceleration of a drilling head in the drilling arrangement at least in the drilling direction; - determining a main drilling frequency in the drilling direction based on the determined acceleration, characterized by the steps of: - integrating said main drilling frequency over time; - determining an amplitude of the acceleration at least at the main drilling frequency; - determining a parameter related to the energy usage at the drilling arrangement based on said integration and said determined amplitude of the acceleration at least at the main drilling frequency; and - optimising the energy usage based on an optimisation of the value of the determined parameter. - determining an acceleration of a drilling head in the drilling arrangement at least in the drilling direction; - determining a main drilling frequency in the drilling direction based on the determined acceleration, - integrating said main drilling frequency over time; - determining an amplitude of the acceleration at least at the main drilling frequency; - determining a parameter related to the energy usage at the drilling arrangement based on said integration and said determined amplitude of the acceleration at least at the main drilling frequency; and - optimising the energy usage based on an optimisation of the value of the determined parameter.
A method for controlling a linear compressor including a piston , and a motor assembly for driving the piston , wherein the motor assembly includes: an outer stator having a coil to which current is applied, an inner stator disposed inside the outer stator , and a permanent magnet disposed movably inside the outer stator and the inner stator , wherein the permanent magnet is connected to the piston ; wherein the linear compressor further includes a bearing flow path configured to supply bearing refrigerant to the piston ; the method comprising: measuring an ambient temperature; when the measured ambient temperature is equal to or lower than a preset safety temperature, applying a safety current (S) to the motor assembly for driving the piston ; and when the measured ambient temperature is higher than the safety temperature, applying a drive current (D) lower than the safety current (S) to the motor assembly ; wherein when the safety current is applied to the coil, the bearing refrigerant is expanded by the heat generated in the coil. an outer stator having a coil to which current is applied, an inner stator disposed inside the outer stator , and a permanent magnet disposed movably inside the outer stator and the inner stator , wherein the permanent magnet is connected to the piston ; wherein the linear compressor further includes a bearing flow path configured to supply bearing refrigerant to the piston ; measuring an ambient temperature; when the measured ambient temperature is equal to or lower than a preset safety temperature, applying a safety current (S) to the motor assembly for driving the piston ; and when the measured ambient temperature is higher than the safety temperature, applying a drive current (D) lower than the safety current (S) to the motor assembly ; wherein when the safety current is applied to the coil, the bearing refrigerant is expanded by the heat generated in the coil.
Composite pane with an electrical load , comprising an outer pane and an inner pane that are joined to one another via a thermoplastic intermediate layer , wherein • the thermoplastic intermediate layer has a recess that has a receiving opening , • the receiving opening is dimensioned such that it is designed for accommodating the electrical load in the recess , and • the electrical load is arranged in the recess and wherein no connection is provided between the electrical load and the intermediate layer . • the thermoplastic intermediate layer has a recess that has a receiving opening , • the receiving opening is dimensioned such that it is designed for accommodating the electrical load in the recess , and • the electrical load is arranged in the recess
A rotary machine comprising a pump chamber comprising a base , a cover and a lateral wall defining an inner space; a rotor housed in the inner space of the pump chamber , this rotor comprising at least one slot ; at least one vane , each vane being at least partially introduced in one slot of the rotor ; an electric motor having a drive shaft passing through a central opening of the base to drive the rotor ; at least one inlet port for sucking air form a device where pressure is aimed to be lowered, the inlet port being in fluid communication with at least an inlet hole of the pump chamber , at least one outlet port in fluid communication with an outside zone of the rotary machine for discharging compressed air exiting the pump chamber through at least one outlet hole of the pump chamber , a noise reduction element comprising at least one damping conduct intended to reduce the sound pressure level of the compressed air an intermediate chamber between the base of the pump chamber and the motor , the inlet port and the outlet port being connected to this intermediate chamber , characterized by comprising an intermediate conduct housed at least partially in the intermediate chamber for communicating the inlet port with the at least one inlet hole of the pump chamber, the intermediate conduct leaving a free space in the intermediate chamber and the noise reduction element being placed at least partially within a part of this free space , and wherein the at least one outlet hole opens into this free space of the intermediate chamber such that the compressed air exiting the pump chamber through the outlet hole enters the damping conduct of the noise reduction element . a pump chamber comprising a base , a cover and a lateral wall defining an inner space; a rotor housed in the inner space of the pump chamber , this rotor comprising at least one slot ; at least one vane , each vane being at least partially introduced in one slot of the rotor ; an electric motor having a drive shaft passing through a central opening of the base to drive the rotor ; at least one inlet port for sucking air form a device where pressure is aimed to be lowered, the inlet port being in fluid communication with at least an inlet hole of the pump chamber , at least one outlet port in fluid communication with an outside zone of the rotary machine for discharging compressed air exiting the pump chamber through at least one outlet hole of the pump chamber , a noise reduction element comprising at least one damping conduct intended to reduce the sound pressure level of the compressed air an intermediate chamber between the base of the pump chamber and the motor , the inlet port and the outlet port being connected to this intermediate chamber ,