mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for use with a universal serial bus enabled host, the apparatus comprising: a housing; at least one sensor (202, 206, 210, 214) configured to provide sensor information; processing circuitry located within the housing and coupled to the at least one sensor; and a memory coupled to the processing circuitry; characterised in that: the at least one sensor is disposed within the housing; the memory stores a static identification number; and the apparatus further comprises a USB interface, coupled to the processing circuitry, and configured to provide access to the sensor information via the processing circuitry; wherein: the sensor information is associated with the static identification number by the processing circuitry; and the USB interface is configurable by a USB-enabled host. a housing; at least one sensor (202, 206, 210, 214) configured to provide sensor information; processing circuitry located within the housing and coupled to the at least one sensor; and a memory coupled to the processing circuitry; the at least one sensor is disposed within the housing; the memory stores a static identification number; and the apparatus further comprises a USB interface, coupled to the processing circuitry, and configured to provide access to the sensor information via the processing circuitry; wherein: the sensor information is associated with the static identification number by the processing circuitry; and the USB interface is configurable by a USB-enabled host. the sensor information is associated with the static identification number by the processing circuitry; and the USB interface is configurable by a USB-enabled host.
A closure comprising a screw cap with a guarantee band, which has at least one cylindrical cap skirt with an internal thread and a circumferential guarantee band at the lower, open end of the cap skirt, which is connected to the lower rim of the cap skirt along easily tearable weakening lines (13, 14), wherein the guarantee band, after tearing along the weakening lines, remains non-detachably connected to the cap skirt via holding bands (15, 16), wherein the closure is designed for use on an opening connection piece of a carton package, wherein the closure has a closure base with a circumferential flange which can be connected in a sealed manner to the surface of a carton package, and a cylindrical pouring spout which adjoins the flange and has an upper outer opening and a lower inner opening, wherein the closure is further equipped with the screw cap with the internal thread which can be screwed onto an external thread of the pouring spout wherein the closure is provided with a cutting ring arranged in the pouring spout and having at least one axially inwardly projecting cutting edge at its lower rim, wherein the closure is provided with an axial lifting and entraining device on the cutting ring and the screw cap, which comprises an entraining element attached to the inside of the screw cap and an axial lifting device which, when the screw cap is rotated in the opening direction, moves the cutting ring axially in the direction of the lower opening and in the circumferential direction and thereby introduces an at least partially circular circumferential cut into the container surface, characterised in that the holding bands (15, 16) are formed by two weakening lines (13, 14) which are each interrupted at least once in the circumferential direction, partially overlap in the circumferential direction and extend at least in the overlap region at an axial distance from one another, wherein the separating webs (11, 12) of both weakening lines (13, 14) are bridged by the respective other weakening line (14, 13) at an axial distance.
A food composition in the form of a water-in-oil-in water emulsion comprising: • Water, • An oil phase comprising: ∘ Vegetable oil, which is liquid at 20 °C, ∘ Water-in-oil emulsifier comprising fat crystals, wherein the fat crystals are triglycerides or mixtures of triglycerides that crystalize at a temperature of between 58 and 72 °C, wherein the fat crystals are present in an amount of from 0.5 to 15 wt%, based on the weight of the oil phase, wherein the oil phase is present in an amount of from 5 to 76 wt%, based on the weight of the composition, • Oil-in-water emulsifier, not being egg yolk, wherein the oil-in-water emulsifier comprises less than 5 wt% phospholipid, based on the weight of the oil-in-water emulsifier, wherein the oil-in-water emulsifier is present in an amount of from 0.2 to 6 wt%, based on the weight of the composition, • Egg yolk. • Water, • An oil phase comprising: ∘ Vegetable oil, which is liquid at 20 °C, ∘ Water-in-oil emulsifier comprising fat crystals, wherein the fat crystals are triglycerides or mixtures of triglycerides that crystalize at a temperature of between 58 and 72 °C, wherein the fat crystals are present in an amount of from 0.5 to 15 wt%, based on the weight of the oil phase, wherein the oil phase is present in an amount of from 5 to 76 wt%, based on the weight of the composition, ∘ Vegetable oil, which is liquid at 20 °C, ∘ Water-in-oil emulsifier comprising fat crystals, wherein the fat crystals are triglycerides or mixtures of triglycerides that crystalize at a temperature of between 58 and 72 °C, wherein the fat crystals are present in an amount of from 0.5 to 15 wt%, based on the weight of the oil phase, • Oil-in-water emulsifier, not being egg yolk, wherein the oil-in-water emulsifier comprises less than 5 wt% phospholipid, based on the weight of the oil-in-water emulsifier, wherein the oil-in-water emulsifier is present in an amount of from 0.2 to 6 wt%, based on the weight of the composition, • Egg yolk.
Gear mechanism, in particular coaxial gear mechanism or linear gear mechanism, having - a toothing system, - a tooth carrier with radially oriented guides, - teeth (25, 27) which are received in the guides for engagement with the toothing system, the teeth (25, 27) being mounted in the guides such that they can be displaced radially relative to the tooth carrier in the direction of their longitudinal axis, - a cam disk for radially driving the teeth (25, 27), the cam disk having a circumferential profiling, - rolling bodies (15, 17) which are configured as cylindrical rollers, or needle rollers and which are arranged on the profiling, and - a plurality of pivoting segments for mounting the teeth (25, 27), the pivoting segments being arranged on the rolling bodies (15, 17), - the rolling bodies (15, 17) being arranged on the profiling in at least two rolling body rows which are parallel in the circulating direction of the cam disk, - chrachterized in that the pivoting segments are supported on at least two rolling body rows which are parallel in the circulating direction. - a toothing system, - a tooth carrier with radially oriented guides, - teeth (25, 27) which are received in the guides for engagement with the toothing system, the teeth (25, 27) being mounted in the guides such that they can be displaced radially relative to the tooth carrier in the direction of their longitudinal axis, - a cam disk for radially driving the teeth (25, 27), the cam disk having a circumferential profiling, - rolling bodies (15, 17) which are configured as cylindrical rollers, or needle rollers and which are arranged on the profiling, and - a plurality of pivoting segments for mounting the teeth (25, 27), the pivoting segments being arranged on the rolling bodies (15, 17), - the rolling bodies (15, 17) being arranged on the profiling in at least two rolling body rows which are parallel in the circulating direction of the cam disk, - chrachterized in that the pivoting segments are supported on at least two rolling body rows which are parallel in the circulating direction.
A suction cup for engaging and lifting an object, said suction cup comprising: a lip; a bellows sealingly connected to the lip; and, an upper portion, sealingly connected to the bellows, for connecting an inner volume of the suction cup to a source of vacuum, wherein the bellows comprises at least one compressible bellows segment comprising an upper exterior surface and lower exterior surface, and an opposing upper exterior surface of the lip and an opposing lower exterior surface of the segment of the bellows are capable of being compressed against each other into a compressed state, characterized in that at least one of the opposing upper exterior surface of the lip and the opposing lower exterior surface of the bellows comprises at least one through open hole in fluid connection with the inner volume of the suction cup, and at least one of the opposing upper exterior surface of the lip and the opposing lower exterior surface of the bellows comprises a raised sealing portion, wherein said raised sealing portion is capable of forming a seal between said opposing surfaces in the compressed state of the suction cup for entrapping air between said opposing surfaces, and the through hole is provided so that air entrapped between said opposing surfaces can be evacuated through the through open hole. at least one of the opposing upper exterior surface of the lip and the opposing lower exterior surface of the bellows comprises at least one through open hole in fluid connection with the inner volume of the suction cup, and at least one of the opposing upper exterior surface of the lip and the opposing lower exterior surface of the bellows comprises a raised sealing portion, wherein said raised sealing portion is capable of forming a seal between said opposing surfaces in the compressed state of the suction cup for entrapping air between said opposing surfaces, and the through hole is provided so that air entrapped between said opposing surfaces can be evacuated through the through open hole.
A monitoring device for monitoring operation of a drug delivery device, the monitoring device comprising: - a fastening member to releasably attach the monitoring device to an axially elongated housing of the drug delivery device, - a sliding member shiftable relative to the fastening member in axial direction (1, 2) and being adapted to operably engage with at least one dose setting component (17, 18, 26) of the drug delivery device to follow an axial displacement of the dose setting component (17, 18, 26) relative to the housing component, - a first sensor arrangement (36, 46) for detecting a rotation of the dose setting component (17, 18, 26) relative to the fastening member, - a second sensor arrangement (38, 48) for detecting an axial displacement of the sliding member relative to the fastening member, and - a processing member coupled to the first and to the second sensor arrangements (36, 38) to process first and second signals obtainable from the first and from the second sensor arrangements (36, 38, 46, 48) for determining the size of a dose dispensed by the drug delivery device, characterized in that the first sensor arrangement (36, 46) is adapted to quantitatively determine a rotational displacement of the dose setting component (17, 18, 26) relative to the housing and wherein the second sensor arrangement (38, 48) is adapted to quantitatively determine an axial displacement of the dose setting component (17, 18, 26) relative to the housing when attached to - a fastening member to releasably attach the monitoring device to an axially elongated housing of the drug delivery device, - a sliding member shiftable relative to the fastening member in axial direction (1, 2) and being adapted to operably engage with at least one dose setting component (17, 18, 26) of the drug delivery device to follow an axial displacement of the dose setting component (17, 18, 26) relative to the housing component, - a first sensor arrangement (36, 46) for detecting a rotation of the dose setting component (17, 18, 26) relative to the fastening member, - a second sensor arrangement (38, 48) for detecting an axial displacement of the sliding member relative to the fastening member, and - a processing member coupled to the first and to the second sensor arrangements (36, 38) to process first and second signals obtainable from the first and from the second sensor arrangements (36, 38, 46, 48) for determining the size of a dose dispensed by the drug delivery device, characterized in that the first sensor arrangement (36, 46) is adapted to quantitatively determine a rotational displacement of the dose setting component (17, 18, 26) relative to the housing and wherein the second sensor arrangement (38, 48) is adapted to quantitatively determine an axial displacement of the dose setting component (17, 18, 26) relative to the housing when attached to
A signal power management circuit comprising: a rectifier configured to rectify a received radio frequency signal and output a first rectified voltage (VDDU PRE); a first regulator configured to maintain the first rectified voltage (VDDU PRE) at a predetermined first voltage level; a second regulator configured to receive an output of the first regulator and maintain a second rectified voltage (VDDU) at a predetermined second voltage level, the first rectified voltage (VDDU PRE) differing from the second rectified voltage (VDDU); and a signal detector configured to receive the first rectified voltage (VDDU PRE) and the second rectified voltage (VDDU) and detect a signal component of the received radio frequency signal based on a difference between the first voltage level of the first rectified voltage (VDDU_PRE) and the second voltage level of the second rectified voltage (VDDU), characterized in that the signal detector includes: a first transistor having a first terminal configured to receive the second rectified voltage; a second transistor configured to share a gate terminal with the first transistor and having a first terminal configured to receive the first rectified voltage (VDDU PRE); and a current mirror circuit configured to mirror a current that flows through the second transistor and provide the mirrored current to a demodulator. a rectifier configured to rectify a received radio frequency signal and output a first rectified voltage (VDDU PRE); a first regulator configured to maintain the first rectified voltage (VDDU PRE) at a predetermined first voltage level; a second regulator configured to receive an output of the first regulator and maintain a second rectified voltage (VDDU) at a predetermined second voltage level, the first rectified voltage (VDDU PRE) differing from the second rectified voltage (VDDU); and a signal detector configured to receive the first rectified voltage (VDDU PRE) and the second rectified voltage (VDDU) and detect a signal component of the received radio frequency signal based on a difference between the first voltage level of the first rectified voltage (VDDU_PRE) and the second voltage level of the second rectified voltage (VDDU), characterized in that the signal detector includes: a first transistor having a first terminal configured to receive the second rectified voltage; a second transistor configured to share a gate terminal with the first transistor and having a first terminal configured to receive the first rectified voltage (VDDU PRE); and a current mirror circuit configured to mirror a current that flows through the second transistor and provide the mirrored current to a demodulator. a first transistor having a first terminal configured to receive the second rectified voltage; a second transistor configured to share a gate terminal with the first transistor and having a first terminal configured to receive the first rectified voltage (VDDU PRE); and a current mirror circuit configured to mirror a current that flows through the second transistor and provide the mirrored current to a demodulator.
User equipment, UE, for supporting preemption of a transmission over a first link being a sidelink of a low priority to another UE, the UE being configured to: obtain preemption information from a network device, wherein the preemption information is indicative of at least one first spatial filter that is to be preempted by the UE for the transmission over the first link, and is further indicative of at least one further spatial filter to be used by the first UE for the transmission over the first link; preempt the at least one first spatial filter when transmitting over the first link; and use the at least one further spatial filter for the transmission over the first link. obtain preemption information from a network device, wherein the preemption information is indicative of at least one first spatial filter that is to be preempted by the UE for the transmission over the first link, and is further indicative of at least one further spatial filter to be used by the first UE for the transmission over the first link; preempt the at least one first spatial filter when transmitting over the first link; and use the at least one further spatial filter for the transmission over the first link.
A filament feeding device for use in 3D-printing, wherein said filament feeding device comprises: a first feeding wheel configured to rotate with a first rotational shaft, a second feeding wheel configured to rotate with a second rotational shaft, wherein said first and second feeding wheels (110, 120) are separated by a separation distance so as to allow feeding of a filament material received between said first and second filament wheels (110, 120), characterized in that, said filament feeding device further comprises an adjuster element configured to move said first rotational shaft relative the second rotational shaft by engaging the first rotational shaft with a cam curve slot, the adjuster element being movable between a first distinct position setting said separation distance to a first predetermined distance, and into a second distinct position setting said separation distance to a second predetermined distance, wherein the adjuster element engages the first rotational shaft with a respective first and second position in the cam curve slot in the first and second distinct position respectively, and wherein said second predetermined separation distance is larger than said first predetermined separation distance. a first feeding wheel configured to rotate with a first rotational shaft, a second feeding wheel configured to rotate with a second rotational shaft, wherein said first and second feeding wheels (110, 120) are separated by a separation distance so as to allow feeding of a filament material received between said first and second filament wheels (110, 120), characterized in that, said filament feeding device further comprises an adjuster element configured to move said first rotational shaft relative the second rotational shaft by engaging the first rotational shaft with a cam curve slot, the adjuster element being movable between a first distinct position setting said separation distance to a first predetermined distance, and into a second distinct position setting said separation distance to a second predetermined distance, wherein the adjuster element engages the first rotational shaft with a respective first and second position in the cam curve slot in the first and second distinct position respectively, and wherein said second predetermined separation distance is larger than said first predetermined separation distance.
A hair care composition comprising by weight: (a) from 0.1% to 10% of a cationic surfactant system; (b) from 0.1% to 20% of a high melting point fatty compound, wherein the high melting point fatty compound is a fatty compound having a melting point of 25°C or higher, and is selected from the group consisting of fatty alcohols, fatty acids, fatty alcohol derivatives, fatty acid derivatives, and mixtures thereof; (c) from 0.01% to 5% of an anionic particulate, wherein the anionic particulates are either particulates which naturally have anionic charge, wherein the particulate which naturally has anionic charge is a metal carbonate; or non-anionic particulates which are coated or premixed by anionic polymers, wherein the non-anionic particulate which is coated or premixed by an anionic polymer, is metal pyrithione coated or premixed by anionic polymers; (d) from 0.01% to 5% of a cationic polymer, wherein the cationic polymer is polyquatemium-6; and (e) an aqueous carrier. (a) from 0.1% to 10% of a cationic surfactant system; (b) from 0.1% to 20% of a high melting point fatty compound, wherein the high melting point fatty compound is a fatty compound having a melting point of 25°C or higher, and is selected from the group consisting of fatty alcohols, fatty acids, fatty alcohol derivatives, fatty acid derivatives, and mixtures thereof; (c) from 0.01% to 5% of an anionic particulate, wherein the anionic particulates are either particulates which naturally have anionic charge, wherein the particulate which naturally has anionic charge is a metal carbonate; or non-anionic particulates which are coated or premixed by anionic polymers, wherein the non-anionic particulate which is coated or premixed by an anionic polymer, is metal pyrithione coated or premixed by anionic polymers; wherein the anionic particulates are either particulates which naturally have anionic charge, wherein the particulate which naturally has anionic charge is a metal carbonate; or non-anionic particulates which are coated or premixed by anionic polymers, wherein the non-anionic particulate which is coated or premixed by an anionic polymer, is metal pyrithione coated or premixed by anionic polymers; (d) from 0.01% to 5% of a cationic polymer, wherein the cationic polymer is polyquatemium-6; and (e) an aqueous carrier.
A system for capturing a plantar image, characterised in that it comprises: - a device to be selected between a depth sensor and a 3D image capturing device, and; - a portable structure (2, 2') defined by: - first legs, each leg made up of a tubular central body that houses a first body and a second body, respectively, at each end; - a first frame that holds a glass pane, joined to the tubular central body of the first legs, and - an elastic membrane, joined to the second body of the first legs, wherein: - the position of both the first body and the second body with respect to the tubular central body is adjustable, and - a foot of which the plantar image is to be obtained is positioned on the elastic membrane until it is supported on the glass pane of the first frame to be scanned. - a device to be selected between a depth sensor and a 3D image capturing device, and; - a portable structure (2, 2') defined by: - first legs, each leg made up of a tubular central body that houses a first body and a second body, respectively, at each end; - a first frame that holds a glass pane, joined to the tubular central body of the first legs, and - an elastic membrane, joined to the second body of the first legs, - first legs, each leg made up of a tubular central body that houses a first body and a second body, respectively, at each end; - a first frame that holds a glass pane, joined to the tubular central body of the first legs, and - an elastic membrane, joined to the second body of the first legs, - the position of both the first body and the second body with respect to the tubular central body is adjustable, and - a foot of which the plantar image is to be obtained is positioned on the elastic membrane until it is supported on the glass pane of the first frame to be scanned.