mhurhangee/ep-ind-claims huggingface dataset:
Headgear for a breathing interface, the headgear comprising at least one strap, the at least one strap having a customizable stretch characteristic, wherein the at least one strap incorporates a stretch component, a relatively non-stretch member and two or more buckles that interconnect the at least one strap and the relatively non-stretch member, and wherein the stretch component has a greater length than the relatively non-stretch member.
A method for user selection of a virtual object in a virtual scene, comprising: receiving a first user input via a user input device, wherein the first user input is an attempt to select the virtual object rendered in a virtual scene on a display (150, 360, 560) of the display system (100B, 106, 500), wherein the virtual scene comprises a plurality of virtual objects; determining, in response to the first user input, a position and orientation of the user input device; performing, based on the position and orientation of the user input device, a ray-cast procedure and a sphere-cast procedure to determine the virtual object being selected; characterized by comparing results of the ray-cast procedure and the sphere-cast procedure, wherein, when the ray-cast procedure has determined another virtual object as being selected than the sphere-cast procedure, ray-cast results are prioritized over sphere-cast results, and wherein, when the ray-case procedure and the sphere-cast procedure have determined the same virtual object as being selected, the sphere-cast results are prioritized over the ray-cast results; and rendering a virtual beam from the user input device to the virtual object based on the comparison, wherein when ray-cast results are used, the virtual beam is straight and rigid, and wherein when sphere-cast results are used, the virtual beam is non-rigid and curves to the virtual object. receiving a first user input via a user input device, wherein the first user input is an attempt to select the virtual object rendered in a virtual scene on a display (150, 360, 560) of the display system (100B, 106, 500), wherein the virtual scene comprises a plurality of virtual objects; determining, in response to the first user input, a position and orientation of the user input device; performing, based on the position and orientation of the user input device, a ray-cast procedure and a sphere-cast procedure to determine the virtual object being selected; characterized by comparing results of the ray-cast procedure and the sphere-cast procedure, wherein, when the ray-cast procedure has determined another virtual object as being selected than the sphere-cast procedure, ray-cast results are prioritized over sphere-cast results, and wherein, when the ray-case procedure and the sphere-cast procedure have determined the same virtual object as being selected, the sphere-cast results are prioritized over the ray-cast results; and rendering a virtual beam from the user input device to the virtual object based on the comparison, wherein when ray-cast results are used, the virtual beam is straight and rigid, and wherein when sphere-cast results are used, the virtual beam is non-rigid and curves to the virtual object.
Device for the heat treatment of a target region of a biological tissue, comprising: - energy generating means (3, 4) for supplying energy to a focal point in the target region, - means for measuring the spatial temperature distribution in said region, - a control unit comprising means for controlling the displacement of the focal point towards successive treatment points and means for controlling the energy to be supplied by the generating means (3, 4) to the successive treatment points, characterised in that the control unit further includes means for determining a spatial and energy distribution of the treatment points where treatment is to be carried out, characterised in that these means are arranged to determine the spatial and energy distribution of the treatment points where treatment is to be carried out according to a spatial distribution of energy required, defined by a temperature control system to treat the target region, a treatment point being determined as being the point at which a spatial distribution of remaining energy for treating the target region is at its maximum, the spatial distribution of remaining energy corresponding to the spatial distribution of energy required to treat the target region subtracted from the spatial energy distributions characteristic of the previously determined treatment points. - energy generating means (3, 4) for supplying energy to a focal point in the target region, - means for measuring the spatial temperature distribution in said region, - a control unit comprising means for controlling the displacement of the focal point towards successive treatment points and means for controlling the energy to be supplied by the generating means (3, 4) to the successive treatment points,
An electrically-powered vehicle having mounted thereon an internal combustion engine and a motor for causing the vehicle to travel, the electrically-powered vehicle comprising: a power storage device for storing electric power supplied to said motor; a power receiving unit for receiving the electric power supplied from a power supply external to the vehicle; a charger for performing AC/DC power conversion for converting the electric power received by said power receiving unit into charging power of said power storage device, when the electric power is supplied from said power supply, by a power conversion path passing through an insulating mechanism configured to transmit electric energy with a primary side electrically connected to said power receiving unit electrically insulated from a secondary side electrically connected to said power storage device, said charger having first and second power lines ( 352p, 352g) which are electrically connected to the primary side of said insulating mechanism on said power conversion path, and between which a DC voltage is output; and an electrical heated catalyst device electrically connected to said first and second power lines (352p, 352g), for electrically heating a catalyst that purifies exhaust gas from said internal combustion engine, wherein said charger is configured to be capable of converting the electric power from said power storage device into the DC voltage output to said first and second power lines (352p, 352g), by a part of inverse conversion of said AC/DC power conversion. a power storage device for storing electric power supplied to said motor; a power receiving unit for receiving the electric power supplied from a power supply external to the vehicle; a charger for performing AC/DC power conversion for converting the electric power received by said power receiving unit into charging power of said power storage device, when the electric power is supplied from said power supply, by a power conversion path passing through an insulating mechanism configured to transmit electric energy with a primary side electrically connected to said power receiving unit electrically insulated from a secondary side electrically connected to said power storage device, said charger having first and second power lines ( 352p, 352g) which are electrically connected to the primary side of said insulating mechanism on said power conversion path, and between which a DC voltage is output; and an electrical heated catalyst device electrically connected to said first and second power lines (352p, 352g), for electrically heating a catalyst that purifies exhaust gas from said internal combustion engine, wherein said charger is configured to be capable of converting the electric power from said power storage device into the DC voltage output to said first and second power lines (352p, 352g), by a part of inverse conversion of said AC/DC power conversion.
A method performed by a network node for handling of random access procedures providing access to User Equipments, UEs, to a wireless communications network via the network node, the network node supporting both transmissions on a Control CHannel, CCH, and on an enhanced Control CHannel, eCCH, the method comprises: - receiving a random access preamble from at least one UE in the wireless communications network, the random access preamble indicating whether the at least one UE is configured to monitor transmissions on the CCH, on the eCCH or on both; - determining whether the UE has indicated that the UE is configured to monitor transmissions on the CCH or on the eCCH based on the received indication; - transmitting, to the UE, a random access response on at least one of the CCH or the eCCH enabling the UE to monitor the transmissions, by transmitting a random access response to the UE on the CCH when determining that the UE has indicated that the UE is configured to monitor transmissions on the CCH; and, transmitting a random access response to the UE on the eCCH when determining that the UE has indicated that it monitors transmissions on the eCCH. - receiving a random access preamble from at least one UE in the wireless communications network, the random access preamble indicating whether the at least one UE is configured to monitor transmissions on the CCH, on the eCCH or on both; - determining whether the UE has indicated that the UE is configured to monitor transmissions on the CCH or on the eCCH based on the received indication; - transmitting, to the UE, a random access response on at least one of the CCH or the eCCH enabling the UE to monitor the transmissions, by transmitting a random access response to the UE on the CCH when determining that the UE has indicated that the UE is configured to monitor transmissions on the CCH; and,
An electrosurgical instrument, in particular an HF instrument, with an electrode device with a first electrode and a second electrode, which lie opposite each other, in particular distally, characterized by an insulation body, in which a transponder, preferably an RFID transponder, particularly preferably a glass transponder, is housed, and which connects the first electrode and second electrode to each other, wherein the transponder housed in the insulation body is arranged between the first electrode and the second electrode, in particular symmetrically and/or centrally between the first and second electrodes (2, 4), and wherein a screen opening is configured in the first electrode and/or in the second electrode in the region of the transponder, so that the electrode (2; 4) forms a screen impermeable to signals of electromagnetic waves with a screen opening permeable to signals. an insulation body, in which a transponder, preferably an RFID transponder, particularly preferably a glass transponder, is housed, and which connects the first electrode and second electrode to each other, wherein the transponder housed in the insulation body is arranged between the first electrode and the second electrode, in particular symmetrically and/or centrally between the first and second electrodes (2, 4), and wherein a screen opening is configured in the first electrode and/or in the second electrode in the region of the transponder, so that the electrode (2; 4) forms a screen impermeable to signals of electromagnetic waves with a screen opening permeable to signals.
Method for producing a fibreboard panel from wood fibres and a binder, which panel has a self-stable three-dimensional deformation which extends in at least one direction and repeats periodically and which is corrugated, wherein the panel has a binder which can be activated by the application of steam, wherein the ratio of the thickness of the board to the height of the volume is at least 1: 3, the board having a sinusoidal deformation curve, a predetermined quantity of dry fibres and binder being spread onto a conveyor belt and pre-compressed and fed to a deformation zone in which the temperature and moisture required for finishing are introduced into the quantity of fibres and the latter is subjected to deformation in a deformation station under a suitable pressure and is cured immediately, characterized in that the binder is activated by application of steam, a pair of heated rollers being used for deformation and curing, the deformation being introduced into the activated quantity of fibres between the rollers of the pair of rollers and being maintained by immediate curing, and in that the fibreboard panel is designed as an HDF panel.
An orbital shaker device for biotechnological and/or biomedical applications, comprising: - a frame, - a platform for receiving biotechnological and/or biomedical containers, - eccentric couplings (13, 14) for allowing an orbital movement of the platform relative to the frame, - counterweight units (17, 18) for balancing the orbital movement, and - at least one motor for driving the eccentric couplings (13, 14), - the device comprises two eccentric couplings (13, 14) arranged near respective opposite edges (27, 28) of the platform, characterized in that - each counterweight unit (17, 18) is arranged approximately in the plane of the platform, and in that - both eccentric couplings (13, 14) are driven by the at least one motor. - a frame, - a platform for receiving biotechnological and/or biomedical containers, - eccentric couplings (13, 14) for allowing an orbital movement of the platform relative to the frame, - counterweight units (17, 18) for balancing the orbital movement, and - at least one motor for driving the eccentric couplings (13, 14), - the device comprises two eccentric couplings (13, 14) arranged near respective opposite edges (27, 28) of the platform, characterized in that - each counterweight unit (17, 18) is arranged approximately in the plane of the platform, and in that - both eccentric couplings (13, 14) are driven by the at least one motor.
A hand tool comprising: a first lever arm with a first jaw; a second lever arm with a second jaw, wherein the first lever arm is pivotally coupled to the second lever arm by an intermediate pivot assembly intermediate the ends of the first and second lever arms; a third lever arm pivotally coupled to the first lever arm by a rear pivot assembly distal the first jaw, and wherein a horizontal axis X-X and a vertical axis Y-Y cross in the middle of said rear pivot assembly; and a cam assembly (116, 120) comprising a cam on the third lever arm and a cam follower on the second lever arm and wherein the cam follower is arranged to abut the cam, wherein the cam assembly is arranged to translate a force tending to close the first and third lever arms together into a force tending to close the first and second jaws with a mechanical advantage being at least partially proportional to the distance between the cam follower and the intermediate pivot assembly, characterised in that the cam includes a concave major curve disposed between a lip and a concave minor curve, wherein the major curve has a radius that is larger than a radius of the minor curve. a first lever arm with a first jaw; a second lever arm with a second jaw, wherein the first lever arm is pivotally coupled to the second lever arm by an intermediate pivot assembly intermediate the ends of the first and second lever arms; a third lever arm pivotally coupled to the first lever arm by a rear pivot assembly distal the first jaw, and wherein a horizontal axis X-X and a vertical axis Y-Y cross in the middle of said rear pivot assembly; and a cam assembly (116, 120) comprising a cam on the third lever arm and a cam follower on the second lever arm and wherein the cam follower is arranged to abut the cam, wherein the cam assembly is arranged to translate a force tending to close the first and third lever arms together into a force tending to close the first and second jaws with a mechanical advantage being at least partially proportional to the distance between the cam follower and the intermediate pivot assembly, characterised in that the cam includes a concave major curve disposed between a lip and a concave minor curve, wherein the major curve has a radius that is larger than a radius of the minor curve.
A machine for machining wooden frames or similar, the machine comprising a base; a bridge crane movable along the base in a given first direction; at least two cross members fitted to the base and parallel to a second direction substantially crosswise to the first direction; supporting means comprising at least two supporting bars, which are parallel to said cross members, and define a substantially horizontal first supporting surface for at least one frame; a machining head for machining the frame; a transfer assembly for transferring the frame to and/or from the first supporting surface; the transfer assembly comprising a rotating device, which defines a second supporting surface for the frame, and is movable between a first work position, in which said first and said second supporting surface (P2, P3) are substantially parallel and coplanar, and a second work position, in which the second supporting surface is tilted at a given angle with respect to the first supporting surface; the transfer assembly further comprising a first transfer device (36, 39) for moving the frame between said first and said second supporting surface (P2, P3) when the rotating device is in said first work position; and at least one clamp fitted to each cross member for securing the frame to a substantially horizontal third supporting surface parallel to the first supporting surface; the machine being characterized in that it further comprises a store comprising a trolley, which is connected to the transfer assembly at an input and/or output station for loading and/or unloading the frame onto and/or off the transfer assembly, and has a rack, which extends upwards from a bed of trolley and defines a number of parallel pockets, each extending in a substantially vertical plane perpendicular to the second direction, and each housing a frame positioned on edge and projecting outwards of pocket in the first direction; the pockets being designed to house the frames parallel to one another and to the second supporting surface when the second supporting surface is in said second work position; the transfer assembly further comprising a second transfer device (29, 30) comprising engaging and transfer means for engaging and transferring the frame, and which are movable in the first direction to transfer the frame between the input and/or output station and the second supporting surface when the rotating device is in said second work position; the transfer assembly being movable in the second direction to selectively align the engaging and transfer means with the pockets in the first direction.
A separator for non-aqueous batteries, the separator comprising: a base layer comprising a fiber aggregate, and an electrolyte-swellable resin layer formed on at least one surface of the base layer being such that the resin layer and the base layer are integrated with each other, the resin layer being capable of swelling with liquid electrolyte and comprising a urethane resin, the urethane resin being obtained by reacting a polyol with a polyisocyanate, the polyol including a vinyl polymer having a number average molecular weight of 2000 to 7000 and a polyether polyol, the vinyl polymer comprising as a main chain a vinyl polymer (al') having two hydroxyl groups at one of the termini of the main chain, and a polyoxyethylene chain having a number average molecular weight of 200 to 800 as a side chain of the vinyl polymer (a1'), and the percentage of the polyoxyethylene chain based on the vinyl polymer being within the range of 70 mass% to 98 mass%. a base layer comprising a fiber aggregate, and an electrolyte-swellable resin layer formed on at least one surface of the base layer being such that the resin layer and the base layer are integrated with each other, the resin layer being capable of swelling with liquid electrolyte and comprising a urethane resin, the urethane resin being obtained by reacting a polyol with a polyisocyanate, the polyol including a vinyl polymer having a number average molecular weight of 2000 to 7000 and a polyether polyol, the vinyl polymer comprising as a main chain a vinyl polymer (al') having two hydroxyl groups at one of the termini of the main chain, and a polyoxyethylene chain having a number average molecular weight of 200 to 800 as a side chain of the vinyl polymer (a1'), and the percentage of the polyoxyethylene chain based on the vinyl polymer being within the range of 70 mass% to 98 mass%. the urethane resin being obtained by reacting a polyol with a polyisocyanate, the polyol including a vinyl polymer having a number average molecular weight of 2000 to 7000 and a polyether polyol, the vinyl polymer comprising as a main chain a vinyl polymer (al') having two hydroxyl groups at one of the termini of the main chain, and a polyoxyethylene chain having a number average molecular weight of 200 to 800 as a side chain of the vinyl polymer (a1'), and the percentage of the polyoxyethylene chain based on the vinyl polymer being within the range of 70 mass% to 98 mass%. the vinyl polymer comprising as a main chain a vinyl polymer (al') having two hydroxyl groups at one of the termini of the main chain, and a polyoxyethylene chain having a number average molecular weight of 200 to 800 as a side chain of the vinyl polymer (a1'), and the percentage of the polyoxyethylene chain based on the vinyl polymer being within the range of 70 mass% to 98 mass%.
An electromagnetic field quality assurance system, comprising: an electromagnetic field generator operable to emit an electromagnetic field; at least one quality assurance electromagnetic sensor operable to sense an emission of the electromagnetic field by the electromagnetic field generator; characterised by a quality assurance controller operable in communication with the at least one quality assurance electromagnetic sensor to assess a tracking quality of the electromagnetic field during an interventional procedure derived from a monitoring of a sensed position of the at least one quality assurance electromagnetic sensor within a field-of-view of the electromagnetic field. an electromagnetic field generator operable to emit an electromagnetic field; at least one quality assurance electromagnetic sensor operable to sense an emission of the electromagnetic field by the electromagnetic field generator; characterised by a quality assurance controller operable in communication with the at least one quality assurance electromagnetic sensor to assess a tracking quality of the electromagnetic field during an interventional procedure derived from a monitoring of a sensed position of the at least one quality assurance electromagnetic sensor within a field-of-view of the electromagnetic field.