mhurhangee/ep-ind-claims huggingface dataset:
A message distribution system configured to provide traffic messages received by at least one base station of a telecommunications network to at least one traffic control system capable of controlling traffic infrastructure, e.g. one or more traffic lights or one or more traffic information panels, characterized by the message distribution system comprising: - a detection module configured to detect traffic messages from user devices in a radio coverage area of the at least one base station, wherein the detection module is configured to distinguish traffic messages from non-traffic messages received from the user devices and for forwarding the traffic messages to a routing module; and - the routing module configured to access association information associating a first routing address of a first traffic control system with a first base station, and associating a second routing address of a second traffic control system with a second base station, and to route the detected traffic messages to the routing address associated with the base station receiving the traffic messages from the user devices. - a detection module configured to detect traffic messages from user devices in a radio coverage area of the at least one base station, wherein the detection module is configured to distinguish traffic messages from non-traffic messages received from the user devices and for forwarding the traffic messages to a routing module; and - the routing module configured to access association information associating a first routing address of a first traffic control system with a first base station, and associating a second routing address of a second traffic control system with a second base station, and to route the detected traffic messages to the routing address associated with the base station receiving the traffic messages from the user devices.
A wheel loader comprising: an engine; an exhaust gas post-processing device including a diesel particulate filtering device and a selective catalyst reduction catalyst device, and disposed above the engine; an engine room for accommodating the engine and the exhaust gas post-processing device; characterised by a top plate having a sloping part (9e, 9g) with a height that decreases toward the rear and a first ventilation part that includes apluralityof through-holes formed in the sloping part (9e, 9g), the top plate defining an upper plane of the engine room; a cooling room disposed to the rear of the engine room and accommodating a cooling unit; a partition wall that separates the engine room and the cooling room; and a drainage mechanism that is disposed below the first ventilation part, and that receives water that enters the engine room from the first ventilation part and drains the water to the outside of the engine room. an engine; an exhaust gas post-processing device including a diesel particulate filtering device and a selective catalyst reduction catalyst device, and disposed above the engine; an engine room for accommodating the engine and the exhaust gas post-processing device; characterised by a top plate having a sloping part (9e, 9g) with a height that decreases toward the rear and a first ventilation part that includes apluralityof through-holes formed in the sloping part (9e, 9g), the top plate defining an upper plane of the engine room; a cooling room disposed to the rear of the engine room and accommodating a cooling unit; a partition wall that separates the engine room and the cooling room; and a drainage mechanism that is disposed below the first ventilation part, and that receives water that enters the engine room from the first ventilation part and drains the water to the outside of the engine room.
Device for switchably influencing electromagnetic radiation, comprising: - a phase change material being switchable between at least a first state and a second state, the first state and the second state having different electrical and/or magnetic properties; - an optically responsive structure in contact with the phase change material, the optically responsive structure having - at least a first nanostructure and a second nanostructure, - the first nanostructure being different from the second nanostructure; - the first nanostructure being optically responsive at a predetermined electromagnetic wavelength when the phase change material is in its first state, and non-responsive at the same predetermined wavelength when the phase change material is in its second state, and - the second nanostructure being optically responsive at the same predetermined electromagnetic wavelength when the phase change material is in its second state, and non-responsive at the same predetermined wavelength when the phase change material is in its first state. - a phase change material being switchable between at least a first state and a second state, the first state and the second state having different electrical and/or magnetic properties; - an optically responsive structure in contact with the phase change material, the optically responsive structure having - at least a first nanostructure and a second nanostructure, - the first nanostructure being different from the second nanostructure; - at least a first nanostructure and a second nanostructure, - the first nanostructure being different from the second nanostructure; - the first nanostructure being optically responsive at a predetermined electromagnetic wavelength when the phase change material is in its first state, and non-responsive at the same predetermined wavelength when the phase change material is in its second state, and - the second nanostructure being optically responsive at the same predetermined electromagnetic wavelength when the phase change material is in its second state, and non-responsive at the same predetermined wavelength when the phase change material is in its first state.
Organopolysiloxane composition, characterized in that it comprises, on the one hand, a silicone base B capable of curing via polycondensation reaction into a silicone elastomer and, on the other hand, a catalytically effective amount of at least one polycondensation catalyst which is a metal complex or salt A of formula below: [M (L 1) r1 (L 2) r2 x] in which: - r1 ≥ 1, r2 ≥ 0 and x ≥ 0; - the symbol M represents a metal selected from the group constituted by: scandium, ytterbium, copper, silver and bismuth; - the symbol L 1 represents a ligand which is a sulphonate, preferably perfluoroalkylsulphonate, anion and when r1 ≥ 2, the symbols L 1 possibly being identical or different; - the symbol L 2 represents an anionic ligand which is different from L 1 and when r2 ≥ 2, the symbols L 2 possibly being identical or different; and - the symbol Y represents a neutral ligand and when x ≥ 2, the symbols Y possibly being identical or different. - r1 ≥ 1, r2 ≥ 0 and x ≥ 0; - the symbol M represents a metal selected from the group constituted by: scandium, ytterbium, copper, silver and bismuth; - the symbol L 1 represents a ligand which is a sulphonate, preferably perfluoroalkylsulphonate, anion and when r1 ≥ 2, the symbols L 1 possibly being identical or different; - the symbol L 2 represents an anionic ligand which is different from L 1 and when r2 ≥ 2, the symbols L 2 possibly being identical or different; and - the symbol Y represents a neutral ligand and when x ≥ 2, the symbols Y possibly being identical or different.
A detection device for detecting the approach or the presence of objects, particularly animated extremities, at and in an observation zone, respectively, comprising: - a transmitter electrode device (E T) for coupling an electric alternating field in the observation zone and its surrounding area, - a receiver electrode device (E R) spaced apart from the transmitter electrode device (E T) for detecting the electric alternating field generated in the observation zone or said surrounding area and extending from the transmitter electrode device (E T) to the receiver electrode device (E R), and - a separator electrode device arranged between the transmitter electrode device (E T) and the receiver electrode device (E R) for shielding a portion of the field spreading out between the transmitter electrode (E T) and the receiver electrode (E R), characterized in that the separator electrode device is made of a metallic material or of a conductive synthetic material, in particular elastomer material, and in that the separator electrode device extends below the transmitter electrode device (E T) and the receiver electrode device (E R) and comprises a separator section which extends vertically in an area between the transmitter electrode device (E T) and the receiver electrode device (E R). - a transmitter electrode device (E T) for coupling an electric alternating field in the observation zone and its surrounding area, - a receiver electrode device (E R) spaced apart from the transmitter electrode device (E T) for detecting the electric alternating field generated in the observation zone or said surrounding area and extending from the transmitter electrode device (E T) to the receiver electrode device (E R), and - a separator electrode device arranged between the transmitter electrode device (E T) and the receiver electrode device (E R) for shielding a portion of the field spreading out between the transmitter electrode (E T) and the receiver electrode (E R),
An implantable device for treating a breathing disorder in a patient having a lung, a diaphragm innervated by a phrenic nerve and a vein near the phrenic nerve, the device comprising: a lead having a stimulation electrode; a respiration measuring device (114, 209) for monitoring the respiration of the patient, to derive the inspiration phase of a breath; a stimulator for stimulating the phrenic nerve with the stimulation electrode at a time beginning after the beginning of the inspiration phase, characterized in that the stimulation electrode is adapted for implantation in a vein of the patient proximate the phrenic nerve; and in that the implantable device is configured to detect a natural inspiration and to wait until about the turn from inspiration to expiration to deliver a burst (709, 710, 711, 712) of stimulation pulses via the stimulation electrode to hold the diaphragm in a contracted condition and to extend the duration of the breath. a lead having a stimulation electrode; a respiration measuring device (114, 209) for monitoring the respiration of the patient, to derive the inspiration phase of a breath; a stimulator for stimulating the phrenic nerve with the stimulation electrode at a time beginning after the beginning of the inspiration phase, characterized in that the stimulation electrode is adapted for implantation in a vein of the patient proximate the phrenic nerve; and in that the implantable device is configured to detect a natural inspiration and to wait until about the turn from inspiration to expiration to deliver a burst (709, 710, 711, 712) of stimulation pulses via the stimulation electrode to hold the diaphragm in a contracted condition and to extend the duration of the breath.
A tire, comprising: a decorative portion that is formed at a tire outer surface and has a base surface; and a plurality of first pattern regions at which a plurality of projections (34, 36), which project out from the base surface of the decorative portion at a projecting height of from 0.1 mm to 1.0 mm, are formed at intervals of from 0.1 mm to 1.0 mm, wherein the intervals differ from one first pattern region to a next first pattern region, characterized in that: a plurality of projections within each first pattern region are connected to one another. a decorative portion that is formed at a tire outer surface and has a base surface; and a plurality of first pattern regions at which a plurality of projections (34, 36), which project out from the base surface of the decorative portion at a projecting height of from 0.1 mm to 1.0 mm, are formed at intervals of from 0.1 mm to 1.0 mm, wherein the intervals differ from one first pattern region to a next first pattern region, characterized in that: a plurality of projections within each first pattern region are connected to one another.
Floodlight, in particular floodlight for sports lighting, comprising: a first floodlight module having a first group of light sources for light emission, a second floodlight module having a second group of light sources for light emission, and an optical element, wherein a peripheral end of the first floodlight module is connected to a first peripheral end of the second floodlight module, and wherein a peripheral end of the optical element is connected to a second peripheral end of the second floodlight module being opposite to the first end, and wherein each of the first floodlight module and the optical element are tilted with respect to the second floodlight module in a direction towards each other, such that the optical element is able to optically interact with at least the light emitted from the first group of light sources, wherein the optical element further comprises a first side for optically interacting with at least the light emitted from the first group of light sources, and a second side facing away from the first side, wherein at least the second side has a convex shape. a first floodlight module having a first group of light sources for light emission, a second floodlight module having a second group of light sources for light emission, and an optical element, wherein a peripheral end of the first floodlight module is connected to a first peripheral end of the second floodlight module, and wherein a peripheral end of the optical element is connected to a second peripheral end of the second floodlight module being opposite to the first end, and wherein each of the first floodlight module and the optical element are tilted with respect to the second floodlight module in a direction towards each other, such that the optical element is able to optically interact with at least the light emitted from the first group of light sources, wherein the optical element further comprises a first side for optically interacting with at least the light emitted from the first group of light sources, and a second side facing away from the first side, wherein at least the second side has a convex shape.
A method, comprising: receiving, by a network, from a first user equipment, UE,, a physical downlink control channel, PDCCH, monitoring capability, the PDCCH monitoring capability including: a span pattern requirement specifying one or more restrictions on lengths and separations, and a minimum time separation requirement, the minimum time separation requirement specifying a minimum time separation between downlink control informations, DCls; and generating, by the network, in response to the PDCCH monitoring capability, a first monitoring occasion, MO, pattern, characterized by sending, by the network, to the first UE, the first MO pattern, the first MO pattern not complying with the span pattern requirement, and sending, by the network, to the first UE, a first DCI, and a second DCI separated from the first DCI by at least the minimum time separation, wherein the minimum time separation requirement specifies an absence of a DCI in a symbol immediately following a symbol with a DCI, the method further comprising disabling, by the first UE, DCI reception during a symbol immediately following the first DCI. receiving, by a network, from a first user equipment, UE,, a physical downlink control channel, PDCCH, monitoring capability, the PDCCH monitoring capability including: a span pattern requirement specifying one or more restrictions on lengths and separations, and a minimum time separation requirement, the minimum time separation requirement specifying a minimum time separation between downlink control informations, DCls; and a span pattern requirement specifying one or more restrictions on lengths and separations, and a minimum time separation requirement, the minimum time separation requirement specifying a minimum time separation between downlink control informations, DCls; and generating, by the network, in response to the PDCCH monitoring capability, a first monitoring occasion, MO, pattern, characterized by sending, by the network, to the first UE, the first MO pattern, the first MO pattern not complying with the span pattern requirement, and sending, by the network, to the first UE, a first DCI, and a second DCI separated from the first DCI by at least the minimum time separation, wherein the minimum time separation requirement specifies an absence of a DCI in a symbol immediately following a symbol with a DCI, the method further comprising disabling, by the first UE, DCI reception during a symbol immediately following the first DCI.
Fastening rail for embedding in a concrete component, wherein the fastening rail has a rail back, two rail longitudinal sides, which are situated opposite to one another and extend in a rail longitudinal direction, and two rail lips, wherein the rail lips respectively extend on that side of the rail longitudinal sides that is remote from the rail back and project towards one another from the rail longitudinal sides and delimit a slot between them, wherein the rail lips have an outer side which is remote from the rail back, wherein the fastening rail has an anchorless form and wherein the fastening rail forms at least one undercut from the rail back in the direction of the outer side of the rail lips, wherein the fastening rail has an outer face which is formed by the outer side, remote from the rail lips, of the rail back and the outer sides of the rail longitudinal sides and which is provided for the purpose of contact with the concrete of the concrete component, wherein the undercut is formed by at least one rail longitudinal side, wherein the undercut is formed by virtue of the fact that the width (b, c) of the fastening rail, which width is measured parallel to the outer side of the rail lips and perpendicular to the rail longitudinal direction, decreases in at least one portion from the rail back in the direction of the outer side of the rail lips, characterized in that the rail back is provided on its outer side at least in part with a profiling and the rail longitudinal sides are inclined in relation to the rail back by an angle (α) of from 70° to 85°.
A two-wheeled vehicle tyre comprising: a tread portion comprising a tread rubber, the tread rubber comprising a cap rubber forming a tread surface and a base rubber disposed radially inwardly of the cap rubber, 300% modulus (M300c) of the cap rubber being greater than 300% modulus (M300b) of the base rubber, characterized in that loss tangent (tan 8c) of the cap rubber being smaller than loss tangent (tan 8b) of the base rubber, the tread surface comprising a crown region (Cr) centered on a tyre equator and a pair of shoulder regions (Sh) located axially outwardly of the crown region (Cr), and a thickness (tc) of the cap rubber in the crown region (Cr) being greater than a thickness (tc) of the cap rubber in each of the shoulder regions (Sh), wherein 300% modulus means a value of modulus in elongation at 300% at 30 degrees C. measured based on JIS K6251 "Rubber, vulcanized or thermoplasticDetermination of tensile stress-strain properties" and loss tangent (tan δ) means a value of loss tangent measured using a visco-elastic spectrometer under the following conditions based on JIS K6394 "Rubber, vulcanized or thermoplastic - Determination of dynamic properties - General guidance" with initial strain 10%, amplitude plus/minus 2%, frequency 10 Hz, tensile deformation mode, and temperature 70 degrees C. a tread portion comprising a tread rubber, the tread rubber comprising a cap rubber forming a tread surface and a base rubber disposed radially inwardly of the cap rubber, 300% modulus (M300c) of the cap rubber being greater than 300% modulus (M300b) of the base rubber, characterized in that loss tangent (tan 8c) of the cap rubber being smaller than loss tangent (tan 8b) of the base rubber, the tread surface comprising a crown region (Cr) centered on a tyre equator and a pair of shoulder regions (Sh) located axially outwardly of the crown region (Cr), and a thickness (tc) of the cap rubber in the crown region (Cr) being greater than a thickness (tc) of the cap rubber in each of the shoulder regions (Sh), wherein 300% modulus means a value of modulus in elongation at 300% at 30 degrees C. measured based on JIS K6251 "Rubber, vulcanized or thermoplasticDetermination of tensile stress-strain properties" and loss tangent (tan δ) means a value of loss tangent measured using a visco-elastic spectrometer under the following conditions based on JIS K6394 "Rubber, vulcanized or thermoplastic - Determination of dynamic properties - General guidance" with initial strain 10%, amplitude plus/minus 2%, frequency 10 Hz, tensile deformation mode, and temperature 70 degrees C.
A system for determining reference locations, comprising: a device configured to be worn on a wearer's head; a scene camera (12, 19a, 19b, 31) mounted on the device oriented away from the wearer for capturing scene camera images of the environment of the wearer; an eye-tracking camera (13a, 13b) mounted on the device oriented towards an eye of the wearer for capturing eye-tracking locations of at least one of the wearer's eyes; and one or more processors coupled to the scene camera (12, 19a, 19b) for determining scene reference locations within the scene camera images and coupled to the eye-tracking camera (13a, 13b), the one or more processors using the scene reference locations and the eye-tracking locations to determine locations being viewed by the wearer, the system further comprising: a database of templates mapping known objects (55a, 55b, 55c, 55d) with scene reference locations associated with respective known objects, the one or more processors coupled to the database for identifying objects associated with the scene reference locations acquired from the scene images and wherein: the one or more processors are further configured to measure the distances between centers or edges of the identified objects (55a, 55b, 55c, 55d) in vertical and/or horizontal directions and use known real-world distances between vertical and/or horizontal scene reference locations to translate distances measured within images from the scene camera (12, 19a, 19b, 31) into real-world dimensions. a device configured to be worn on a wearer's head; a scene camera (12, 19a, 19b, 31) mounted on the device oriented away from the wearer for capturing scene camera images of the environment of the wearer; an eye-tracking camera (13a, 13b) mounted on the device oriented towards an eye of the wearer for capturing eye-tracking locations of at least one of the wearer's eyes; and one or more processors coupled to the scene camera (12, 19a, 19b) for determining scene reference locations within the scene camera images and coupled to the eye-tracking camera (13a, 13b), the one or more processors using the scene reference locations and the eye-tracking locations to determine locations being viewed by the wearer, the system further comprising: a database of templates mapping known objects (55a, 55b, 55c, 55d) with scene reference locations associated with respective known objects, the one or more processors coupled to the database for identifying objects associated with the scene reference locations acquired from the scene images and wherein: the one or more processors are further configured to measure the distances between centers or edges of the identified objects (55a, 55b, 55c, 55d) in vertical and/or horizontal directions and use known real-world distances between vertical and/or horizontal scene reference locations to translate distances measured within images from the scene camera (12, 19a, 19b, 31) into real-world dimensions.