mhurhangee/ep-ind-claims huggingface dataset:
A packaging system for a bicycle, comprising: a rear panel (110, 305); a front panel (105, 300) that mates with the rear panel (110, 305) to form an enclosure, wherein the front panel (105, 300) partially detaches from the rear panel (110, 305) to lay flat on a ground surface that supports the packaging system such that at least a portion of an interior side of the front panel (105, 300) forms a work surface that covers the ground surface; a rear support (180, 400) positioned within the enclosure, wherein the rear support (180, 400) includes a tire receptacle configured to receive a rear tire of the bicycle; a front support (190, 500) positioned within the enclosure opposite of the rear support (180, 400), wherein the front support (190, 500) includes a front fork mount (185, 510) attached thereto, and wherein the front fork mount (185, 510) is configured to secure front forks of the bicycle; and a tire wedge that mounts within the rear support (180, 400) to secure the rear tire of the bicycle, wherein the tire wedge includes a slot that mates with a central divider of the rear support (180, 400). a rear panel (110, 305); a front panel (105, 300) that mates with the rear panel (110, 305) to form an enclosure, wherein the front panel (105, 300) partially detaches from the rear panel (110, 305) to lay flat on a ground surface that supports the packaging system such that at least a portion of an interior side of the front panel (105, 300) forms a work surface that covers the ground surface; a rear support (180, 400) positioned within the enclosure, wherein the rear support (180, 400) includes a tire receptacle configured to receive a rear tire of the bicycle; a front support (190, 500) positioned within the enclosure opposite of the rear support (180, 400), wherein the front support (190, 500) includes a front fork mount (185, 510) attached thereto, and wherein the front fork mount (185, 510) is configured to secure front forks of the bicycle; and a tire wedge that mounts within the rear support (180, 400) to secure the rear tire of the bicycle, wherein the tire wedge includes a slot that mates with a central divider of the rear support (180, 400).
A building system, comprising: a) a communication network; b) a plurality of wireless nodes within a building operably coupled to the communication network; c) a plurality of passive wireless devices, each passive wireless device affixed to or within an object within the building, each passive wireless device containing first information regarding at least one physical characteristic of the object, wherein the at least one physical characteristic includes at least one thermal property of the object, each of the passive wireless devices configured to communicate wirelessly to at least one of the wireless nodes using power derived from communication signals detected in the passive wireless device; d) a plurality of sensors configured to generate second information representative of sensed temperature throughout the building, each sensor operably connected to the communication network; e) a processing circuit operably coupled to receive the first information from the passive wireless devices and the second information from the sensors, wherein the processing circuit is configured to generate a model based in part upon the first information, and to generate control information regarding the building based on the model and the second information. a) a communication network; b) a plurality of wireless nodes within a building operably coupled to the communication network; c) a plurality of passive wireless devices, each passive wireless device affixed to or within an object within the building, each passive wireless device containing first information regarding at least one physical characteristic of the object, wherein the at least one physical characteristic includes at least one thermal property of the object, each of the passive wireless devices configured to communicate wirelessly to at least one of the wireless nodes using power derived from communication signals detected in the passive wireless device; d) a plurality of sensors configured to generate second information representative of sensed temperature throughout the building, each sensor operably connected to the communication network; e) a processing circuit operably coupled to receive the first information from the passive wireless devices and the second information from the sensors, wherein the processing circuit is configured to generate a model based in part upon the first information, and to generate control information regarding the building based on the model and the second information.
A high flow nasal therapy system comprising: a gas supply (3, 4, 21), a humidifier (5, 22), a nebulizer (12, 23), a flow line (11, 10), a sensor for detecting flow conditions, said sensor comprising a flow meter (15, 24) in the flow line, a nasal interface (7, 27) or a coupler for connection to an external interface, and a controller (16, 25) configured to control the system in real time to vary the aerosol delivery to the nasal interface on a temporal basis, wherein the controller is configured to: provide an increased aerosol delivery during patient inhalation and reduced aerosol delivery during patient exhalation, characterized in that, the controller is also configured to: vary the aerosol output at least partly in response to sensed flow conditions, control aerosol delivery to remove any rainout building up in a breathing circuit by means of temporally varying aerosol output, receive a signal from a gas flow generator control unit and/or the flow meter and if there is no flow, or backward flow coming from the patient side towards the flow generator, preventing the nebuliser and/or the humidifier from generating aerosol and/or humidity, and to detect patient activity and control aerosol delivery according to detected periods of altered activity. a gas supply (3, 4, 21), a humidifier (5, 22), a nebulizer (12, 23), a flow line (11, 10), a sensor for detecting flow conditions, said sensor comprising a flow meter (15, 24) in the flow line, a nasal interface (7, 27) or a coupler for connection to an external interface, and a controller (16, 25) configured to control the system in real time to vary the aerosol delivery to the nasal interface on a temporal basis, wherein the controller is configured to: provide an increased aerosol delivery during patient inhalation and reduced aerosol delivery during patient exhalation, characterized in that, the controller is also configured to: vary the aerosol output at least partly in response to sensed flow conditions, control aerosol delivery to remove any rainout building up in a breathing circuit by means of temporally varying aerosol output, receive a signal from a gas flow generator control unit and/or the flow meter and if there is no flow, or backward flow coming from the patient side towards the flow generator, preventing the nebuliser and/or the humidifier from generating aerosol and/or humidity, and to detect patient activity and control aerosol delivery according to detected periods of altered activity. vary the aerosol output at least partly in response to sensed flow conditions, control aerosol delivery to remove any rainout building up in a breathing circuit by means of temporally varying aerosol output, receive a signal from a gas flow generator control unit and/or the flow meter and if there is no flow, or backward flow coming from the patient side towards the flow generator, preventing the nebuliser and/or the humidifier from generating aerosol and/or humidity, and to detect patient activity and control aerosol delivery according to detected periods of altered activity.
A polyethylene composition comprising a base resin comprising 70 to 30 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 955 to 980 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 50 to 600 g/10 min; 30 to 70 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 947 to 970 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 0.0001 to 1.0 g/10 min; wherein the average molecular weight of fraction is lower than the average molecular weight of the base resin; wherein the sum of the amounts of fraction and fraction is 100 wt.-% with respect to the total weight of the base resin; wherein the base resin has a density determined according to ISO 1183-1:2004 (method A) of 957 to 970 kg/m 3. 70 to 30 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 955 to 980 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 50 to 600 g/10 min; 30 to 70 wt.-% of a polyethylene homo- or copolymer fraction with respect to the total weight of the base resin having a density determined according to ISO 1183-1:2004 (method A) of 947 to 970 kg/m 3 and a MFR 2 determined according to ISO 1133 at 190 °C and a load of 2.16 kg of 0.0001 to 1.0 g/10 min; wherein the average molecular weight of fraction is lower than the average molecular weight of the base resin; wherein the sum of the amounts of fraction and fraction is 100 wt.-% with respect to the total weight of the base resin; wherein the base resin has a density determined according to ISO 1183-1:2004 (method A) of 957 to 970 kg/m 3.
A method for transferring multimedia broadcasts/multicast services, MBMS, in a wireless communication system, the method comprising: determining or estimating a number of users who are within a first cell and are subscribed to receive an active first MBMS service; determining whether a dedicated channel or a shared/common channel is to be used for the first MBMS service to provide the service to the subscribed users by using the determined or estimated number of subscribed users for the first MBMS service within the first cell; receiving MBMS data for the first MBMS service; and mapping the MBMS data for the first MBMS service to the determined dedicated or shared/common channel; wherein the determined dedicated or shared/common channel is at least based on a threshold test, wherein on a condition that the determined or estimated number of users within the first cell and subscribed to the first MBMS service is below a threshold, a dedicated channel is used for the first MBMS service and on a condition that the determined or estimated number of users within the first cell and subscribed to the first MBMS service is above the threshold, a shared/common channel is used for the first MBMS service, and wherein the shared/common channel includes a secondary common control physical channel, S-CCPCH, for a broadcast service to multiple users. determining or estimating a number of users who are within a first cell and are subscribed to receive an active first MBMS service; determining whether a dedicated channel or a shared/common channel is to be used for the first MBMS service to provide the service to the subscribed users by using the determined or estimated number of subscribed users for the first MBMS service within the first cell; receiving MBMS data for the first MBMS service; and mapping the MBMS data for the first MBMS service to the determined dedicated or shared/common channel; wherein the determined dedicated or shared/common channel is at least based on a threshold test, wherein on a condition that the determined or estimated number of users within the first cell and subscribed to the first MBMS service is below a threshold, a dedicated channel is used for the first MBMS service and on a condition that the determined or estimated number of users within the first cell and subscribed to the first MBMS service is above the threshold, a shared/common channel is used for the first MBMS service, and wherein the shared/common channel includes a secondary common control physical channel, S-CCPCH, for a broadcast service to multiple users.
A method for determining blood pressure in a blood vessel, wherein a pulse wave transit time is determined in a measurement process by means of at least two sensors (4a, 4b, 5, 5a, 5b) arranged at a defined distance from one another, wherein the blood pressure is determined from a change in pulse wave transit time by calibration, in particular by means of a clamping pressure measurement, without using a further signal proportional to the flow velocity, wherein the change in pulse wave transit time is inversely proportional to the change in blood pressure, wherein light pulses are emitted in the direction of the blood vessel by means of an lighting means (4a, 4b) of the sensors, wherein a portion of the light pulse reflected by the blood in the blood vessel and/or a portion of the light pulse transmitted through the blood in the blood vessel is detected by means of a detector (5, 5a, 5b) of the sensors, wherein a time offset between the activation of the two sensors is regulated in such a way that the time offset corresponds to the pulse wave transit time, so that the same relative measured values are achieved which substantially represent the same point in the measured value profiles that are comparable in terms of the curve shape.
A method for transmission of data packets by means of an optical burst switching network featuring a number of network nodes (N01, N02, N03, N04, N05, N06) in which data packets are aggregated into a burst to which a header is assigned, wherein a loop-free common control channel is set up in the optical burst switching network, to which all network nodes have access, characterized in that the headers are transmitted over the loop-free common control channel virtually in parallel to all network nodes (N01, N02, N03, N04, N05, N06) and processed virtually in parallel in the network node, wherein each network node receives a header and conveys said header opto-electrically converted to a control unit of the network node, and wherein the headers are forwarded directly from the corresponding network node via the set up control channel for transmission to all network nodes.
Dry aroma formulation in the form of a powder or granulate, comprising at least one carrier supported extract, whereby the carrier is a tooth-preserving, non-laxative sugar, namely grinded isomaltulose, and whereby the extract is obtained from plants or plant parts by extraction with water, water/ethanol or ethanol, and which is physically associated with the grinded isomaltulose in a mechanically inseparable manner, containing at least 40 % by weight of isomaltulose as carrier substance relative to the total amount, no more than 5 % by weight of water, relative to the total amount of dry substance of the dry aroma formulation, and 5 % by weight to 56 % by weight of extract, relative to the total amount.
An engine device comprising an engine having an intake manifold, the engine device further comprises an exhaust manifold, the engine device being characterised in that in further comprises an exhaust gas purifying device which purifies exhaust gas from the engine, wherein the exhaust gas purifying device is connected to the exhaust manifold, the engine device further includes a filter supporting body which supports the exhaust gas purifying device, and the exhaust gas purifying device is connected to a flywheel housing disposed in the engine through the filter supporting body, wherein a cooling fan is provided on a side surface of the engine which is opposite from the flywheel housing, and the exhaust gas purifying device is disposed such that it is opposed to one side surface of a cylinder head located on an upper portion of the engine on the side of the flywheel housing, wherein an exhaust gas inflow opening is formed on a peripheral surface of one end of the exhaust gas purifying device, an exhaust gas inlet tube is disposed on an outside of the exhaust gas inflow opening, and an opening size of an exhaust gas outlet-side opening end of the exhaust gas inlet tube is larger than the opening size of the exhaust gas inflow opening.
A material for forming an organic film, comprising: a compound for forming an organic film shown by the following general formula; and an organic solvent, wherein W 1 represents a tetravalent or hexavalent organic group, and has at least one or more aromatic rings, such that the oxygen atoms are bonded to positions adjacent to each other on the aromatic ring, thereby forming a 1,4-dioxin ring, n1 represents an integer of 1 or 2, n2 represents 2 or 3, each R 1 independently represents any in the following formula, and a hydrogen atom of a benzene ring in the formula is optionally substituted with a fluorine atom, a compound for forming an organic film shown by the following general formula; and an organic solvent,
An eddy current brake magnet arrangement (22; 122; 222; 322; 422), encompassing an at least partly ferromagnetic magnet carrier (26; 126; 226; 326; 426) that carries, along a succession axis, a plurality of braking-field magnets (28; 128; 228; 328; 428) which are arranged one behind another and have alternating polarization directions that are each orthogonal to the succession axis and parallel to one another; the magnet carrier (26; 126; 226; 326; 426) extending, from a magnet side (26a; 126a; 226a; 326a; 426a) located closer to the braking-field magnets (28; 128; 228; 328; 428), in a direction away from the braking-field magnets (28; 128; 228; 328; 428); and the braking-field magnets (28; 128; 228; 328; 428) each extending between a carrier side (28b; 128b; 228b; 328b; 428b) located closer to the magnet carrier (26; 126; 226; 326; 426) and an induction side (28a; 128a; 228a; 328a; 428a) located farther from the magnet carrier (26; 126; 226; 326; 426); the induction side (28a; 128a; 228a; 328a; 428a) facing toward an induction region (34; 134; 234; 334; 434) into which the magnetic field of the braking-field magnets (28; 128; 228; 328; 428), which proceeds from the induction side (28a; 128a; 228a; 328a; 428a), acts, characterized in that the eddy current brake magnet arrangement (22; 122; 222; 322; 422) encompasses, in order to modify its braking effect, magnetic flux-changing means (52; 152; 252; 352; 452) that are embodied to modify at least one magnetic flux condition in a region (64; 164; 264; 364; 464) of the eddy current brake magnet arrangement (22; 122; 222; 322; 422) which proceeds from the induction side (28a; 128a; 228a; 328a; 428a) and extends toward the magnet carrier (26; 126; 226; 326; 426), in order thereby to modify the magnetic flux density of the magnetic field, proceeding from the braking-field magnets (28; 128; 228; 328; 428), in the induction region (34; 134; 234; 334; 434).
A system configured to provide electron density information in a magnetic resonance image volume, including: a memory configured to store an atlas including a reference computed tomography image and a reference MRI image that are co-registered to each other; a display configured to present a view of a patient MRI image and the reference MRI image; and a processor configured to execute an algorithm that associates electron density information from a corresponding landmark in the reference CT image with the selected landmark in the patient MRI image; characterised in that the system further includes: an MRI imaging device configured to generate the patient MRI image; and a nuclear scanner configured to generate a single photon emission computed tomography (SPECT) image or a positron emission tomography image of the patient; wherein the processor is configured to generate attenuation correction data for the patient SPECT or PET image as a function of electron density information from a registered patient MRI image. a memory configured to store an atlas including a reference computed tomography image and a reference MRI image that are co-registered to each other; a display configured to present a view of a patient MRI image and the reference MRI image; and a processor configured to execute an algorithm that associates electron density information from a corresponding landmark in the reference CT image with the selected landmark in the patient MRI image; characterised in that the system further includes: an MRI imaging device configured to generate the patient MRI image; and a nuclear scanner configured to generate a single photon emission computed tomography (SPECT) image or a positron emission tomography image of the patient; wherein the processor is configured to generate attenuation correction data for the patient SPECT or PET image as a function of electron density information from a registered patient MRI image. an MRI imaging device configured to generate the patient MRI image; and a nuclear scanner configured to generate a single photon emission computed tomography (SPECT) image or a positron emission tomography image of the patient; wherein the processor is configured to generate attenuation correction data for the patient SPECT or PET image as a function of electron density information from a registered patient MRI image.
A fermentation method for producing a hydrocarbon compound comprising the culturing of an organism in a liquid fermentation medium, wherein said organism produces a desired hydrocarbon compound by an enzymatic pathway, said enzymatic pathway comprising an intermediate which evaporates into the gaseous phase and wherein said intermediate is recovered from the gaseous phase and is reintroduced into the liquid fermentation medium, and wherein said intermediate is selected from an aldehyde, a ketone and an alcohol.
Method for screwing a locking ring onto a threaded bolt, wherein a coupling device, for mounting in the threaded bolt, is driven in rotation, preferably around a screw-connection axis, by a rotary drive, and wherein, thereafter, a locking-ring holder, which is driven in rotation by the rotary drive, screws the locking ring onto the threaded bolt, which is fixed by the coupling device.
Measuring device with adaptable measuring and operating electronics to transmit a measuring signal, wherein the measuring device has at least one transmitter with an electrical current control circuit for outputting a regulated current, wherein in at least a first mode of operation a current can be adjusted in a first current range, and wherein in at least a second mode of operation a current can be adjusted in a second current range, said second current range having a larger interval than the first current range, wherein the measuring device further comprises a microcontroller circuit and wherein the microcontroller circuit is connected to the electrical current control circuit, said microcontroller circuit being connected to the current control circuit via a wire for the transmission of a digital signal to activate the current control circuit, characterized in that the digital signal has a low and a high state and, with the activation of the current control circuit by the digital signal, it is possible to adjust an output with a current strength value in a first current strength interval for the LOW state and with a current strength value in a second current strength interval for the HIGH state of the digital signal in a first mode of operation, and the second current range can be set to a current between 0 mA and at least 20 mA, and the transmission of the digital signal to activate the current control circuit enables the setting of the output current from 0.35 mA to 1.2 mA for the first current strength interval in the LOW state of the digital signal in the first mode of operation and of 2.2 mA to 8 mA for the second current strength interval in the HIGH state of the digital signal in the first mode of operation.