mhurhangee/ep-ind-claims huggingface dataset:
A wireless integrated circuit device (1; 31; 61; 71; 81; 91) comprising: a wireless integrated circuit processing a certain radio signal; a power-supply circuit board (4; 34) that is connected to the wireless integrated circuit and that includes a power supply circuit including at least one coil pattern; and a radiation plate (3; 33; 63; 73; 83; 100; 110; 120; 130) adapted for radiating a transmission signal supplied from the wireless integrated circuit via the power-supply circuit board (4; 34) and adapted for receiving a reception signal to supply the reception signal to the wireless integrated circuit via the power-supply circuit board (4; 34), wherein the radiation plate (3; 33; 63; 73; 83; 100; 110; 120; 130) includes an opening (7; 37; 67; 77; 87; 107; 117; 127; 137) provided in a part thereof and a slit (6; 36; 76; 86; 106; 116; 126; 136) linking the opening to a side edge of the radiation plate characterized in that viewed in plan from the direction of a winding axis of the coil pattern, the opening in the radiation plate is overlapped with at least part of an area within a winding path of the coil pattern and the coil pattern overlaps with at least a portion of the radiation plate surrounding the opening. a wireless integrated circuit processing a certain radio signal; a power-supply circuit board (4; 34) that is connected to the wireless integrated circuit and that includes a power supply circuit including at least one coil pattern; and a radiation plate (3; 33; 63; 73; 83; 100; 110; 120; 130) adapted for radiating a transmission signal supplied from the wireless integrated circuit via the power-supply circuit board (4; 34) and adapted for receiving a reception signal to supply the reception signal to the wireless integrated circuit via the power-supply circuit board (4; 34), wherein the radiation plate (3; 33; 63; 73; 83; 100; 110; 120; 130) includes an opening (7; 37; 67; 77; 87; 107; 117; 127; 137) provided in a part thereof and a slit (6; 36; 76; 86; 106; 116; 126; 136) linking the opening to a side edge of the radiation plate characterized in that viewed in plan from the direction of a winding axis of the coil pattern, the opening in the radiation plate is overlapped with at least part of an area within a winding path of the coil pattern and the coil pattern overlaps with at least a portion of the radiation plate surrounding the opening.
A flexible underwater pipe intended for transporting hydrocarbons, comprising, from the outside to the inside: - an external polymeric sealing sheath, - at least one ply of tensile armors, - a pressure vault, - an internal polymeric sealing sheath, - optionally a metal carcass, wherein the external polymeric sealing sheath and/or the internal polymeric sealing sheath comprise(s) a high molecular weight polyethylene, the weight average molecular weight (Mw) of which is higher than 400 000 g/mol. - an external polymeric sealing sheath, - at least one ply of tensile armors, - a pressure vault, - an internal polymeric sealing sheath, - optionally a metal carcass,
A process for the production of a coating material for coating an electrode support of an electrical energy storage device, comprising the following steps: a) providing a dry mixture containing at least i) active material, ii) a conductivity additive, as well as iii) fluorine-containing polymer binder, wherein the fluorine-containing polymer binder is selected from a group comprising polyvinylidene fluoride (PVDF), a polyvinylidene fluoride copolymer (PVDF copolymer) or a mixture of PVDF and a PVDF copolymer, b) bringing the dry mixture into contact with a solvent mixture comprising at least 60 % by weight of ethylene carbonate and/or propylene carbonate or 60 % by weight of any mixture thereof, c) thoroughly mixing the solvent mixture and the dry mixture at a temperature of more than 80°C until the fluorine-containing polymer binder has dissolved completely in the solvent mixture, characterized in that the ratio of the fluorine-containing polymer binder and the solvent mixture is 1:, and in that d) the mixture obtained after completely dissolving the fluorine-containing polymer binder is cooled to a temperature of less than 40°C, whereupon the mixture obtained hardens during the cooling process, and e) granulating the mixture obtained during or following the hardening procedure. a) providing a dry mixture containing at least i) active material, ii) a conductivity additive, as well as iii) fluorine-containing polymer binder, wherein the fluorine-containing polymer binder is selected from a group comprising polyvinylidene fluoride (PVDF), a polyvinylidene fluoride copolymer (PVDF copolymer) or a mixture of PVDF and a PVDF copolymer, b) bringing the dry mixture into contact with a solvent mixture comprising at least 60 % by weight of ethylene carbonate and/or propylene carbonate or 60 % by weight of any mixture thereof, c) thoroughly mixing the solvent mixture and the dry mixture at a temperature of more than 80°C until the fluorine-containing polymer binder has dissolved completely in the solvent mixture, d) the mixture obtained after completely dissolving the fluorine-containing polymer binder is cooled to a temperature of less than 40°C, whereupon the mixture obtained hardens during the cooling process, and e) granulating the mixture obtained during or following the hardening procedure.
A slide fastener comprising a fastening member containing a synthetic resin with which flat metal foil containing aluminum is mixed with the synthetic resin, characterized in that an average particle diameter of the metal foil is set to be equal to or more than 3 μm and equal to or less than 8 μm, the fastening member is a fastener component forming the slide fastener, the fastener component is a fastener element, the fastener element has a body portion fixed to a fastener tape and a head portion extending from the fastener tape, a first element half part of the fastener element exposed to the outside has a first element surface disposed on a surface side of the body portion in the front-back direction perpendicular to a tape surface of the fastener tape, and a second element surface inclined downward toward a tip end of the head portion from the first element surface, the first element surface is formed such that an element width in a length direction of the fastener tape gradually decreases toward a tape inner side of the fastener tape, the second element surface is formed such that an element width in the length direction of the fastener tape gradually decreases toward a tape outer side of the fastener tape, and the first element half part further has a third element surface inclined downward toward a front side of the fastener tape in the length direction from the first element surface, and a fourth element surface inclined downward toward a rear side from the first element surface.
A system comprising a head-mountable eye tracking sensor, a processor coupled to said eye tracking sensor and a plurality of spatially separated light sources under control of said processor, wherein: at least one light source of the plurality of spatially separated light sources is arranged to generate a configurable luminous distribution (10, 20) into a field of view of the wearer of the eye tracking sensor; and the processor is adapted to configure said luminous distribution in response to eye tracking data obtained from said eye tracking sensor, wherein each light source from the plurality of spatially separated light sources is adapted to produce a non-configurable luminous output; wherein the processor is adapted to select at least a subset of said plurality of spatially separated light sources in response to said eye tracking data in order to achieve a desired luminous distribution into said field of view by actuating said selection of light sources; and wherein the plurality of spatially separated light sources are spatially distributed in defined locations within a space, characterized in that the system further comprises an image sensor for capturing an image of the field of view, wherein the processor is adapted to: analyze data from said image sensor to recognize a location within said space from said field of view, and select the at least a subset of said plurality of light sources based on the recognized location. at least one light source of the plurality of spatially separated light sources is arranged to generate a configurable luminous distribution (10, 20) into a field of view of the wearer of the eye tracking sensor; and the processor is adapted to configure said luminous distribution in response to eye tracking data obtained from said eye tracking sensor, wherein each light source from the plurality of spatially separated light sources is adapted to produce a non-configurable luminous output; wherein the processor is adapted to select at least a subset of said plurality of spatially separated light sources in response to said eye tracking data in order to achieve a desired luminous distribution into said field of view by actuating said selection of light sources; and wherein the plurality of spatially separated light sources are spatially distributed in defined locations within a space, characterized in that the system further comprises an image sensor for capturing an image of the field of view, wherein the processor is adapted to: analyze data from said image sensor to recognize a location within said space from said field of view, and select the at least a subset of said plurality of light sources based on the recognized location.
A method for use in a well, comprising:providing a tubing string with a plurality of flow control devices, characterized in that: wherein providing a plurality of flow control devices comprises constructing each flow control device to individually adjust a flow area as a function of injection rate resulting from a combined pressure drop through the flow control device and the surrounding formation; conveying the tubing string downhole into a wellbore; pumping an injection fluid along an interior of the tubing string, out through the plurality of flow control devices, and into a surrounding formation; adjusting the flow areas of individual flow control devices of the plurality of flow control devices as a function of an injection flow rates through the individual flow control devices during pumping of the injection fluid; and producing a production fluid from the surrounding formation through the flow control devices after the adjusting of the flow areas of the individual flow control devices. wherein providing a plurality of flow control devices comprises constructing each flow control device to individually adjust a flow area as a function of injection rate resulting from a combined pressure drop through the flow control device and the surrounding formation; conveying the tubing string downhole into a wellbore; pumping an injection fluid along an interior of the tubing string, out through the plurality of flow control devices, and into a surrounding formation; adjusting the flow areas of individual flow control devices of the plurality of flow control devices as a function of an injection flow rates through the individual flow control devices during pumping of the injection fluid; and producing a production fluid from the surrounding formation through the flow control devices after the adjusting of the flow areas of the individual flow control devices.
System having a device for detecting laser radiation and having an alarm device, which provides an optical, acoustic and/or tactile alarm when laser radiation is detected, or a switchable protective device, wherein the alarm device or the switchable protective device is connected to the device for detecting laser radiation via a data link, wherein the device contains at least one light inlet, which is designed to allow electromagnetic radiation to enter which has been reflected or scattered on at least one surface, and wherein the device contains at least one photoelectric transducer, which is designed to convert electromagnetic radiation entering through the light inlet into an electrical signal, wherein a modulator is arranged in the beam path between the light inlet and the photoelectric transducer, which modulator has at least one device for detecting the spatial or temporal coherence and which is designed to modulate laser radiation at a modulation frequency so that the intensity of the laser radiation impinging on the photoelectric transducer increases or decreases with the modulation frequency, wherein background radiation of constant intensity or of a modulation frequency independent of the modulator impinges on the photoelectric transducer, and the device further contains an evaluation circuit by means of which a signal component of the electrical signal that has the modulation frequency can be determined, wherein the evaluation circuit contains a lock-in amplifier and/or a frequency analyzer and/or a box-car integrator and/or a device for carrying out a correlation method.
An agricultural row unit configured to move in a forward direction along a soil surface and open a trench in the soil surface, comprising: a row unit frame; and a closing wheel assembly (110, 2000, 2000') pivotally mounted to and rearward of the row unit frame and disposed to roll along the soil surface; a primary actuator disposed to modify a primary downforce between said closing wheel assembly (110, 2000, 2000') and said soil surface; and a secondary trench closing device mounted to said closing wheel assembly (110, 2000, 2000') and disposed to resiliently contact said soil surface rearward of said closing wheel assembly (100, 100'), characterized in that said secondary trench closing device comprises: an elastic central portion, said elastic central portion firming soil into the trench; a first elastic wing portion, said first elastic wing portion having a forward-swept orientation relative to said elastic central portion, said first elastic wing portion moving soil in a first transverse direction toward the trench; and a second elastic wing portion, said second elastic wing portion having a forward-swept orientation relative to said elastic central portion, said second elastic wing portion moving soil in a second transverse direction toward the trench. a row unit frame; and a closing wheel assembly (110, 2000, 2000') pivotally mounted to and rearward of the row unit frame and disposed to roll along the soil surface; a primary actuator disposed to modify a primary downforce between said closing wheel assembly (110, 2000, 2000') and said soil surface; and a secondary trench closing device mounted to said closing wheel assembly (110, 2000, 2000') and disposed to resiliently contact said soil surface rearward of said closing wheel assembly (100, 100'), characterized in that said secondary trench closing device comprises: an elastic central portion, said elastic central portion firming soil into the trench; a first elastic wing portion, said first elastic wing portion having a forward-swept orientation relative to said elastic central portion, said first elastic wing portion moving soil in a first transverse direction toward the trench; and a second elastic wing portion, said second elastic wing portion having a forward-swept orientation relative to said elastic central portion, said second elastic wing portion moving soil in a second transverse direction toward the trench. an elastic central portion, said elastic central portion firming soil into the trench; a first elastic wing portion, said first elastic wing portion having a forward-swept orientation relative to said elastic central portion, said first elastic wing portion moving soil in a first transverse direction toward the trench; and a second elastic wing portion, said second elastic wing portion having a forward-swept orientation relative to said elastic central portion, said second elastic wing portion moving soil in a second transverse direction toward the trench.
A system comprising a drone having an onboard entity on board said drone and a control entity for controlling the drone and situated remotely from the drone, the control entity being connected to a human-machine interface adapted to enable an operator to select instructions for sending from the control entity to the onboard entity, the onboard entity being adapted to receive the instructions sent by the control entity and to execute actions as a function of the instructions as received in this way by the onboard entity, the system being characterized in that: - the onboard entity is arranged to generate a message from the instructions received by the onboard entity and to transmit this message to the control entity; and - the control entity is arranged to control warning means to generate an information signal representative of said message transmitted by the onboard entity and received by the control entity; the system further comprising validation means connected to the control entity, the control entity also being arranged to act as a function of the operator acting on said validation means after said information signal S has been generated in order to transmit an intention message to the onboard entity; and the onboard entity being arranged to make execution of said actions conditional as a function of said intention message, which actions correspond to the instructions previously received by the onboard entity. - the onboard entity is arranged to generate a message from the instructions received by the onboard entity and to transmit this message to the control entity; and - the control entity is arranged to control warning means to generate an information signal representative of said message transmitted by the onboard entity and received by the control entity;
Wind and snow protection which is designed to be fitted along one side of a rail in a railway track, the protection comprising a flexible strip arrangement having a fixing part (6a, 6b) and a flexible screen (7a, 7b) projecting therefrom, which forms a curtain, which extends along the fixing part (6a, 6b) and which is sized and adapted, when the strip arrangement is in use, to extend upwards from the fixing part (6a, 6b), characterized in that the flexible screen (7a, 7b) comprises a first screen, which projects from the fixing part (6a, 6b) in a first direction, and a second screen, which projects from the fixing part (6a, 6b) in a second, opposite direction to the first direction, and in that said first and second screens (7a, 7b) are formed of first and second sets of bristles, respectively.
An RF tag circuit (10, 10a, 10b, 10c, 10d) connected to an antenna (20, 41) and a load, the RF tag circuit (10, 10a, 10b, 10c, 10d) comprising: a rectification circuit that rectifies a radio wave received by the antenna (20, 41) and supplies DC power; a matching circuit, of which an impedance is changeable, disposed between the antenna (20, 41) and the rectification circuit; a power storage unit that stores the DC power input from the rectification circuit and supplies the stored DC power to the load; and a switch disposed in a line between the rectification circuit and the power storage unit; the RF tag circuit (10, 10a, 10b, 10c, 10d) being characterized in further comprising: a control unit that turns off the switch to electrically disconnect the power storage unit from the rectification circuit and the load, wherein the control unit adjusts the impedance of the matching circuit such that the DC power supplied by the rectification circuit increases. a rectification circuit that rectifies a radio wave received by the antenna (20, 41) and supplies DC power; a matching circuit, of which an impedance is changeable, disposed between the antenna (20, 41) and the rectification circuit; a power storage unit that stores the DC power input from the rectification circuit and supplies the stored DC power to the load; and a switch disposed in a line between the rectification circuit and the power storage unit; the RF tag circuit (10, 10a, 10b, 10c, 10d) being characterized in further comprising: a control unit that turns off the switch to electrically disconnect the power storage unit from the rectification circuit and the load, wherein the control unit adjusts the impedance of the matching circuit such that the DC power supplied by the rectification circuit increases.
Mounting box (1, 101) for mounting in a wall to house electrical components, the mounting box comprising: - a hollow flush mounting element (2, 102) with an open end (23, 123), said flush mounting element (2, 102) can be installed in an opening in a wall and is intended to create a space in which said electrical components can be installed, or partially installed, through the open end (23, 123); - a mounting flange (3, 103) facing outward from the open end (23, 123) configured to extend around the wall opening once mounted; wherein the mounting flange (3, 103) is fixedly connected via a watertight connection to the hollow flush mounting element (2, 102) and can, at least to a large extent, be removed with one or more specific post processing operations; characterized in that the watertight connection is formed by applying a watertight adhesive between the mounting flange (3, 103) and flush mounting element (2, 102); in that the mounting flange (3, 103) has a frame shape with an essentially smooth rear side intended to face the wall when mounted; and a front side configured to connect to the cover frame of an electrical component; and in that the mounting flange (3, 103) has mounting means (36, 37) protruding in the flush mounting element (2, 102) which mounting means are coupleable to the electrical component. - a hollow flush mounting element (2, 102) with an open end (23, 123), said flush mounting element (2, 102) can be installed in an opening in a wall and is intended to create a space in which said electrical components can be installed, or partially installed, through the open end (23, 123); - a mounting flange (3, 103) facing outward from the open end (23, 123) configured to extend around the wall opening once mounted; wherein the mounting flange (3, 103) is fixedly connected via a watertight connection to the hollow flush mounting element (2, 102) and can, at least to a large extent, be removed with one or more specific post processing operations; characterized in that the watertight connection is formed by applying a watertight adhesive between the mounting flange (3, 103) and flush mounting element (2, 102); in that the mounting flange (3, 103) has a frame shape with an essentially smooth rear side intended to face the wall when mounted; and a front side configured to connect to the cover frame of an electrical component; and in that the mounting flange (3, 103) has mounting means (36, 37) protruding in the flush mounting element (2, 102) which mounting means are coupleable to the electrical component. in that the mounting flange (3, 103) has a frame shape with an essentially smooth rear side intended to face the wall when mounted; and a front side configured to connect to the cover frame of an electrical component; and in that the mounting flange (3, 103) has mounting means (36, 37) protruding in the flush mounting element (2, 102) which mounting means are coupleable to the electrical component.