mhurhangee/patent-ind-claim-en huggingface dataset:
Light device for motor vehicles comprising at least two groups of light sources producing at least two different light beams, comprising a device for controlling the electrical supply of the at least two groups of light sources the light device comprising - a switching voltage converter circuit , said converter circuit comprising means for generating a switched voltage signal from a DC input voltage, - primary output means for converting said switched voltage signal into a first DC output voltage having a first voltage level and for supplying a first group of light sources, - secondary output means for converting said switched voltage signal into at least one second DC output voltage having a second voltage level and for supplying a second light source group, the secondary output means include an electronic circuit including capacitors and diodes and which does not include a switching element and/or integrated circuit and/or microcontroller element, the secondary output means include linear means for regulating the output electrical current, formed by a linear current regulator complementing the second output voltage, the second voltage level is higher than the first voltage level, the light device being characterized in that the first group of light sources, performing all or part of a first light function, is supplied by the first output voltage and in that the second group of light sources, performing all or part of a second light function, is supplied by the second output voltage of the control device, in that it comprises at least one switch (S2, S3) for connecting the first light source group to the first output voltage and one switch (S1) for connecting the second light source group to the first output voltage, and in that all or part of the second light function is supplied by the second secondary output voltage of the control device , while all or part of the first light function is supplied by the first output voltage when the at least one switch (S2, S3) for connecting the first light source group is closed and the switch (S1) for connecting the second light source group is opened and the linear current controller connects the secondary output means to the second light source group. - a switching voltage converter circuit , said converter circuit comprising means for generating a switched voltage signal from a DC input voltage, - primary output means for converting said switched voltage signal into a first DC output voltage having a first voltage level and for supplying a first group of light sources, - secondary output means for converting said switched voltage signal into at least one second DC output voltage having a second voltage level and for supplying a second light source group, the secondary output means include an electronic circuit including capacitors and diodes and which does not include a switching element and/or integrated circuit and/or microcontroller element, the secondary output means include linear means for regulating the output electrical current, formed by a linear current regulator complementing the second output voltage, the second voltage level is higher than the first voltage level,
An antibody or a functional fragment thereof capable of binding to human tumor necrosis factor alpha (TNFα), wherein said antibody or functional fragment comprises (i) a V L domain having the amino acid sequence as shown in SEQ ID NO:27, and (ii) a V H domain having the amino acid sequence as shown in SEQ ID NO:28.
A sensing module for configuring on a vibrating machine or structure, including a pump , comprising: sensors; an outer shell configured with a recessed portion ; a base having encapsulated electronics with a multicol ored light array that is arranged inside the outer shell , the multicolored light array being configured to respond to signaling containing information about a condition being sensed or monitored by the sensing module and to provide along a projection axis (A) at least one beam of light containing information about the condition; characterized in that a domed lens is configured in the recessed portion of the outer shell , and it comprises a bottom surface and a middle lens portion having a top curved surface and two side lens portions with side surfaces to reflect, re-reflect and project the at least one beam as a lens illumination or glow having multiple beams of light rays (R 1 , R 2 , R 3 , R 4 , R 5 ) outwardly from the domed lens in relation to the projection axis (A) with a visibility of 360° about the sensing module . an outer shell configured with a recessed portion ; a base having encapsulated electronics with a multicol ored light array that is arranged inside the outer shell , the multicolored light array being configured to respond to signaling containing information about a condition being sensed or monitored by the sensing module and to provide along a projection axis (A) at least one beam of light containing information about the condition; characterized in that a domed lens is configured in the recessed portion of the outer shell , and it comprises a bottom surface and a middle lens portion having a top curved surface and two side lens portions with side surfaces to reflect, re-reflect and project the at least one beam as a lens illumination or glow having multiple beams of light rays (R 1 , R 2 , R 3 , R 4 , R 5 ) outwardly from the domed lens in relation to the projection axis (A) with a visibility of 360° about the sensing module .
A shovel comprising: a hydraulic actuator; an operating apparatus used to operate the hydraulic actuator; characterised in that the shovel further comprises an obtaining device configured to obtain information concerning a vibration of a body of the shovel; and a control device configured to perform such control as to reduce responsiveness of the hydraulic actuator to an operation of the operating apparatus when the body of the shovel is vibrating or the vibration is likely to occur in the body of the shovel, based on an output of the obtaining device. a hydraulic actuator; an operating apparatus used to operate the hydraulic actuator; characterised in that the shovel further comprises an obtaining device configured to obtain information concerning a vibration of a body of the shovel; and a control device configured to perform such control as to reduce responsiveness of the hydraulic actuator to an operation of the operating apparatus when the body of the shovel is vibrating or the vibration is likely to occur in the body of the shovel, based on an output of the obtaining device.
A garment steamer for treating a garment, the garment steamer comprising: - a base , - a pole assembly extending along a substantially vertical axis (YY) from the base , the pole assembly comprising a first pole and a second pole , - an ironing board for supporting the garment during treatment, - a coupling element for coupling the ironing board and the pole assembly , the coupling element being adapted to allow a rotation of the ironing board compared to the pole assembly around a first axis (A1) being substantially perpendicular to said vertical axis (YY), - a mechanism for setting the rotation angle (AA) of the ironing board around said first axis (A1), said mechanism comprising a lever coupled to the ironing board via a pivot coupling rotating around a second axis (A2) parallel to said first axis (A1), said lever comprising a plurality of grooves characterised in that the plurality of grooves are adapted to cooperate with a stud element , and in that the stud element is fixed relative to and protrudes from one of said first pole and said second pole . - a base , - a pole assembly extending along a substantially vertical axis (YY) from the base , the pole assembly comprising a first pole and a second pole , - an ironing board for supporting the garment during treatment, - a coupling element for coupling the ironing board and the pole assembly , the coupling element being adapted to allow a rotation of the ironing board compared to the pole assembly around a first axis (A1) being substantially perpendicular to said vertical axis (YY), - a mechanism for setting the rotation angle (AA) of the ironing board around said first axis (A1), said mechanism comprising a lever coupled to the ironing board via a pivot coupling rotating around a second axis (A2) parallel to said first axis (A1), said lever comprising a plurality of grooves characterised in that the plurality of grooves are adapted to cooperate with a stud element , and in that the stud element is fixed relative to and protrudes from one of said first pole and said second pole .
Potted plant package comprising: - a potted plant in a pot , the said potted plant comprising one or more stems , roots, leaves and optionally one or more flowers grown from the said one or more stems ; and - a sleeve element with a top and a bottom defining the height (H) of the package, the sleeve element accommodating the potted plant and comprising at least two substantially parallelly extending foil portions , the foil portions being connected to one another to define a closed inner space that accommodates at least the stems , the leaves and if present, the one or more flowers of the potted plant , the sleeve element comprising an upper portion (UP), a middle portion (MP) and a lower portion (LP), characterized in that the middle portion (MP) is 2 - 20% of the height of the sleeve element and comprises a plurality of perforations having a diameter of 0.1 - 4.0 mm, the upper portion (UP) extending from the top of the sleeve element by at least 25% of the height (H) thereof and the lower portion (LP) extending from the bottom of the sleeve element by at 25% of the height (H) thereof, the upper and lower portions (UP, LP) of the sleeve element being void of perforations . - a potted plant in a pot , the said potted plant comprising one or more stems , roots, leaves and optionally one or more flowers grown from the said one or more stems ; and - a sleeve element with a top and a bottom defining the height (H) of the package, the sleeve element accommodating the potted plant and comprising at least two substantially parallelly extending foil portions , the foil portions being connected to one another to define a closed inner space that accommodates at least the stems , the leaves and if present, the one or more flowers of the potted plant , the sleeve element comprising an upper portion (UP), a middle portion (MP) and a lower portion (LP), characterized in that the middle portion (MP) is 2 - 20% of the height of the sleeve element and comprises a plurality of perforations having a diameter of 0.1 - 4.0 mm, the upper portion (UP) extending from the top of the sleeve element by at least 25% of the height (H) thereof and the lower portion (LP) extending from the bottom of the sleeve element by at 25% of the height (H) thereof, the upper and lower portions (UP, LP) of the sleeve element being void of perforations .
A friction stir welding head , intended to be fastened on a machine to perform a friction stir welding using a tool intended to be fastened to a tool holder , forming part of the head, the head including an outer frame , intended to be fastened to a chassis of the machine, a driving part , intended to be driven by a driving spindle, which forms part of the machine and which is rotatably mounted about an axis relative to the chassis, to drive in rotation the tool holder about the axis by rotating the driving part , characterized in that the tool holder is fastened to a shaft rotatably mounted about the axis in a slide , which is guided in translation along the axis in the frame , at least one coupling part being guided in translation along the axis on the driving part , the coupling part and the driving part having respectively first and second coupling members in rotation with each other about the axis to drive in rotation the coupling part from the driving part , the coupling part and the shaft being coupled in rotation about the axis to drive in rotation the shaft from the coupling part , at least one elastic element for transferring the axial forces being interposed between the slide and the frame .
A hair styling device , comprising: an inner cylindrical shell provided with through-holes; a rotatable cylindrical shell surrounding the inner cylindrical shell ; whereby the rotatable cylindrical shell has at least an upward notch formed thereon and at least a hooked structure formed at a side of the upward notch and bends towards the upward notch ; a drive assembly for driving the rotatable cylindrical shell to rotate around the inner cylindrical shell , whereby hair is caught by the at least one hooked structure of the rotatable cylindrical shell and wound around the inner cylindrical shell ; and a wind supply assembly for supplying hot air to hair wound around the inner cylindrical shell through the through-holes. an inner cylindrical shell provided with through-holes; a rotatable cylindrical shell surrounding the inner cylindrical shell ; whereby the rotatable cylindrical shell has at least an upward notch formed thereon and at least a hooked structure formed at a side of the upward notch and bends towards the upward notch ; a drive assembly for driving the rotatable cylindrical shell to rotate around the inner cylindrical shell , whereby hair is caught by the at least one hooked structure of the rotatable cylindrical shell and wound around the inner cylindrical shell ; and a wind supply assembly for supplying hot air to hair wound around the inner cylindrical shell through the through-holes.
A fiber structure comprising thermoplastic resin fibers formed from a thermoplastic resin having a glass transition temperature higher than or equal to 80°C, wherein the thermoplastic resin fibers have an average fiber diameter of smaller than or equal to 10 μm, and an elongation at break in at least one of a machine direction and a cross direction of the fiber structure is greater than or equal to 10%, the fiber structure has a total elongation at break, as measured as set out in the description, in the machine direction and the cross direction of greater than or equal to 30%, and the fiber structure has entangled portions where the fibers are pushed in the thickness direction of the fiber structure, and the fiber structure is a melt-blown nonwoven fabric, a spunbonded nonwoven fabric, or an electrospun nonwoven fabric subjected to entangling treatment. the thermoplastic resin fibers have an average fiber diameter of smaller than or equal to 10 μm, and an elongation at break in at least one of a machine direction and a cross direction of the fiber structure is greater than or equal to 10%, the fiber structure has a total elongation at break, as measured as set out in the description, in the machine direction and the cross direction of greater than or equal to 30%, and the fiber structure has entangled portions where the fibers are pushed in the thickness direction of the fiber structure, and the fiber structure is a melt-blown nonwoven fabric, a spunbonded nonwoven fabric, or an electrospun nonwoven fabric subjected to entangling treatment.
A method for manufacturing a honeycomb structure that includes a tubular circumferential wall and partition walls forming a honeycomb-shaped cross-section and defining a plurality of cells (S) extending inside the circumferential wall in the axial direction of the circumferential wall, the method comprising: a molding process that molds a mixture including ceramic particles, an organic binder, and a dispersion medium to obtain a molded body; a degreasing process that removes the organic binder included in the molded body to obtain a degreased body; and an impregnation process that impregnates the inside of the circumferential wall and the partition walls of the degreased body with metal silicon, wherein the impregnation process is performed using metal silicon with a purity of less than 98 % under an inert gas atmosphere or a vacuum at a temperature between 1400°C and 1900°C. a molding process that molds a mixture including ceramic particles, an organic binder, and a dispersion medium to obtain a molded body; a degreasing process that removes the organic binder included in the molded body to obtain a degreased body; and an impregnation process that impregnates the inside of the circumferential wall and the partition walls of the degreased body with metal silicon, wherein the impregnation process is performed using metal silicon with a purity of less than 98 % under an inert gas atmosphere or a vacuum at a temperature between 1400°C and 1900°C.
Method, implemented by computer, for evaluating the sensitivity of a glazing to form hardening marks as a function of its anisotropy, said method providing output value a parameter value σ v characterizing the ability of said glazing to form hardening marks, said glazing comprising one side 1 and one side 2, both in contact with an external environment, said hardening marks resulting from different optical phase shifts in different areas of the glazing for transmission or reflection vision and on either side of the glazing, said method comprising the following steps - the calculation of at least one transmission parameter by face 1 or by face 2, called T1 or T2, or at least one reflection parameter on face 1 or face 2, said R1 and R2, this calculation being carried out on the one hand for an area of the glazing not causing optical phase shift and on the other hand for an area of the glazing having birefringence axes oriented at a given angle in relation to the plane of incidence and causing an optical phase shift δ to a light ray in a given optical phase shift range, for a given polarization of the light ray and for a given angle of incidence of the light ray; - the calculation of at least one parameter ΔE(δ) corresponding to the difference in colour between the area of the glazing not causing optical phase shift and the area of the glazing causing optical phase shift δ, from at least one of the parameters T1, T2, R1, R2, then - the calculation of σ v = G(ΔE(δ), δ) by applying a function G depending on the ΔE(δ) calculated and, where applicable, the corresponding δ. - the calculation of at least one transmission parameter by face 1 or by face 2, called T1 or T2, or at least one reflection parameter on face 1 or face 2, said R1 and R2, this calculation being carried out on the one hand for an area of the glazing not causing optical phase shift and on the other hand for an area of the glazing having birefringence axes oriented at a given angle in relation to the plane of incidence and causing an optical phase shift δ to a light ray in a given optical phase shift range, for a given polarization of the light ray and for a given angle of incidence of the light ray; - the calculation of at least one parameter ΔE(δ) corresponding to the difference in colour between the area of the glazing not causing optical phase shift and the area of the glazing causing optical phase shift δ, from at least one of the parameters T1, T2, R1, R2, then - the calculation of σ v = G(ΔE(δ), δ) by applying a function G depending on the ΔE(δ) calculated and, where applicable, the corresponding δ.
Method for generating a trigger signal for triggering at least one safety function of a motor vehicle , comprising at least the following method steps: a) receiving respective signals from at least two pressure tube sensors , b) determining a minimum size of a collision object and/or the motor vehicle's own speed from the signals received in step a), c) outputting the trigger signal for the at least one safety function depending on at least one parameter determined in step b). a) receiving respective signals from at least two pressure tube sensors , b) determining a minimum size of a collision object and/or the motor vehicle's own speed from the signals received in step a), c) outputting the trigger signal for the at least one safety function depending on at least one parameter determined in step b).
A control method of a robot cleaner comprising: setting a territory about which cleaning will be performed based on position data acquired during traveling about a cleaning area; predetermining a cleaning path including a zigzag traveling path to clean the territory about which cleaning will be performed; and changing the traveling direction of the robot cleaner by executing curved traveling of the robot cleaner without stopping during traveling along the zigzag traveling path, characterized in that a region of curved traveling overlaps with a cleaned region when executing curved traveling around the cleaned region. setting a territory about which cleaning will be performed based on position data acquired during traveling about a cleaning area; predetermining a cleaning path including a zigzag traveling path to clean the territory about which cleaning will be performed; and changing the traveling direction of the robot cleaner by executing curved traveling of the robot cleaner without stopping during traveling along the zigzag traveling path, characterized in that a region of curved traveling overlaps with a cleaned region when executing curved traveling around the cleaned region.
A method for determining uplink control information, the method comprising: obtaining , by a communications device, a target parameter set, wherein the target parameter set is a hybrid automatic repeat request, HARQ, feedback timing set, the target parameter set is configured by a network device in a case where the communication device is a terminal device, and the target parameter set comprises at least one first HARQ feedback timing value and at least one second HARQ feedback timing value, the at least one first HARQ feedback timing value is used for transmitting a feedback of a first kind of data, and the at least one second HARQ feedback timing value is not used for transmitting the feedback of the first kind of data; receiving, by the communications device, a plurality of kinds of data, wherein a HARQ feedback timing of each of the plurality of kinds of data belongs to the HARQ feedback timing set. wherein parameters of different kinds of data in the plurality of kinds of data are different, and the plurality of kinds of data comprises the first kind of data; and determining , by the communications device according to the at least one first HARQ feedback timing value, a quantity of bits for transmission of feedback information associated with the first kind of data. obtaining , by a communications device, a target parameter set, wherein the target parameter set is a hybrid automatic repeat request, HARQ, feedback timing set, the target parameter set is configured by a network device in a case where the communication device is a terminal device, and the target parameter set comprises at least one first HARQ feedback timing value and at least one second HARQ feedback timing value, the at least one first HARQ feedback timing value is used for transmitting a feedback of a first kind of data, and the at least one second HARQ feedback timing value is not used for transmitting the feedback of the first kind of data; receiving, by the communications device, a plurality of kinds of data, wherein a HARQ feedback timing of each of the plurality of kinds of data belongs to the HARQ feedback timing set. wherein parameters of different kinds of data in the plurality of kinds of data are different, and the plurality of kinds of data comprises the first kind of data; and determining , by the communications device according to the at least one first HARQ feedback timing value, a quantity of bits for transmission of feedback information associated with the first kind of data.