mhurhangee/ep-ind-claims huggingface dataset:
A battery pack, comprising: a cell assembly including a plurality of secondary batteries stacked vertically and having outer protrusions formed at an outer side surface thereof to extend vertically; and a pack housing configured to have an inner space in which the cell assembly is accommodated, the pack housing having inner protrusions formed at an inner side surface thereof to protrude inwards and extend vertically, wherein the cell assembly has ducts provided at both side surfaces thereof so that fluid flows into or out of a secondary battery, and the outer protrusions are formed at outer side surfaces of the ducts; the outer protrusions of the cell assembly come into contact with the inner side surface of the pack housing, and the inner protrusions of the pack housing come into contact with the outer side surface of the cell assembly; and the pack housing is formed to have a rectangular shape when being observed from above, and the inner protrusions are formed at the two long sides of the pack housing, which face each other, among inner side surfaces thereof. a cell assembly including a plurality of secondary batteries stacked vertically and having outer protrusions formed at an outer side surface thereof to extend vertically; and a pack housing configured to have an inner space in which the cell assembly is accommodated, the pack housing having inner protrusions formed at an inner side surface thereof to protrude inwards and extend vertically, wherein the cell assembly has ducts provided at both side surfaces thereof so that fluid flows into or out of a secondary battery, and the outer protrusions are formed at outer side surfaces of the ducts; the outer protrusions of the cell assembly come into contact with the inner side surface of the pack housing, and the inner protrusions of the pack housing come into contact with the outer side surface of the cell assembly; and the pack housing is formed to have a rectangular shape when being observed from above, and the inner protrusions are formed at the two long sides of the pack housing, which face each other, among inner side surfaces thereof.
Pneumatic vehicle tyre - in particular for passenger motor vehicles - having a tread profile with channels which separate in each case two radially elevated profile elements from one another, having at least one web which is formed in a channel and which is formed so as to extend through the channel transversely to the main extent direction of the channel and which connects the two profile elements to one another and which, in a radial direction R, is formed so as to extend from the channel base of the channel to a radial distance h 1 > 0 mm from the lateral surface, which forms the ground contact surface, of the tread profile, wherein the channel forms a transverse or oblique channel, characterized in that the web, in its cross-sectional planes formed perpendicular to its main extent direction directed from profile element to profile element, is formed in each case with a progressively decreasing width b along its radial extent from radially inside to radially outside.
A method for controlling user equipment activity in a wireless communications network, the wireless communications network having operator controllable access points and operator uncontrollable access points (6, 200) that are in communication with a network control node (3, 600) via one or more operator controllable and/or operator uncontrollable Internet Protocol, IP, networks, the method characterized by: - (S2, S1) receiving a trace triggering request and user equipment (9, 900) identification, at the network control node (3, 600), from a first network node (2, 12, 14 or 15); - starting, at the network control node (3, 600), a trace recording and information retrieval procedure relating to the identified user equipment (9, 900); - identifying, at the network control node (3, 600), all used IP networks and the access point (6, 200) serving the user equipment (9, 900); - analyzing the IP networks used between the network control node (3, 600) and the user equipment (9, 900) and/or analyzing the access point (6, 200) serving the user equipment; and - including analyzing results in a trace printout together with retrieved information to be sent to a second network node (2, 12, 14 or 15). - (S2, S1) receiving a trace triggering request and user equipment (9, 900) identification, at the network control node (3, 600), from a first network node (2, 12, 14 or 15); - starting, at the network control node (3, 600), a trace recording and information retrieval procedure relating to the identified user equipment (9, 900); - identifying, at the network control node (3, 600), all used IP networks and the access point (6, 200) serving the user equipment (9, 900); - analyzing the IP networks used between the network control node (3, 600) and the user equipment (9, 900) and/or analyzing the access point (6, 200) serving the user equipment; and - including analyzing results in a trace printout together with retrieved information to be sent to a second network node (2, 12, 14 or 15).
An apparatus adapted for treatment of sleep disordered breathing comprising: a blower for providing to a patient a supply of air at a treatment pressure in phase with the patient's respiratory breathing cycle, the respiratory breathing cycle including an expiratory phase and an inspiratory phase; a patient interface, an air delivery conduit for delivering air from the blower to the patient interface, and means (4p, 4f, 15) for detecting the pressure in the patient interface, the flow of air provided to the patient through the patient interface, and transitions between inspiration and expiration of the patient's breathing cycle; a controller for determining a first index and a second index from pressure or flow detected by said means, the first index being indicative of one or more of apnea, hypopnea and snoring, and the second index being indicative of flow limitation; and calculating a first pressure from the first index and calculating a second pressure from the second index the first pressure being provided during the expiratory phase of the patient's breathing cycle and the second pressure being provided during the inspiratory phase of the patient's breathing cycle. a blower for providing to a patient a supply of air at a treatment pressure in phase with the patient's respiratory breathing cycle, the respiratory breathing cycle including an expiratory phase and an inspiratory phase; a patient interface, an air delivery conduit for delivering air from the blower to the patient interface, and means (4p, 4f, 15) for detecting the pressure in the patient interface, the flow of air provided to the patient through the patient interface, and transitions between inspiration and expiration of the patient's breathing cycle; a controller for determining a first index and a second index from pressure or flow detected by said means, the first index being indicative of one or more of apnea, hypopnea and snoring, and the second index being indicative of flow limitation; and calculating a first pressure from the first index and calculating a second pressure from the second index the first pressure being provided during the expiratory phase of the patient's breathing cycle and the second pressure being provided during the inspiratory phase of the patient's breathing cycle.
Device for controlling a deceleration system of a vehicle comprising: - an input port configured to receive a fluidic main deceleration request, and - an output port configured to supply an electric deceleration demand to the deceleration system, wherein the device is configured to generate the electric deceleration demand according to the fluidic main deceleration request, characterised in that the device is configured to generate a fluidic deceleration demand according to the fluidic main deceleration request and to supply the fluidic deceleration demand to the deceleration system via an output port of the device. - an input port configured to receive a fluidic main deceleration request, and - an output port configured to supply an electric deceleration demand to the deceleration system, wherein the device is configured to generate the electric deceleration demand according to the fluidic main deceleration request, characterised in that the device is configured to generate a fluidic deceleration demand according to the fluidic main deceleration request and to supply the fluidic deceleration demand to the deceleration system via an output port of the device.
A method for preparing a system comprising a targeted agent for performing a medical procedure on a patient having been diagnosed with back pain, characterized by: based upon the back pain diagnosis, preparing a volume of a targeted agent in combination with a delivery assembly in a configuration that is operable to allow delivery of the targeted agent to a region of the patient that comprises at least a portion of a spine, wherein the targeted agent is characterized by differentially binding to a pain factor at a location of a spinal joint associated with a source of the back pain when delivered into the patient; configuring at least one of an energy delivery system to deliver energy to the patient and an imaging system to image the pain factor at a location of a spinal joint; and wherein the targeted agent when delivered into the region of the patient that comprises at least a portion of a spine is further characterized to enhance at least one of (i) diagnostic localization of the source of the back pain at the location in the patient's body when the imaging system is operated in the configuration to image the location of a spinal joint and (ii) selective tissue therapy of the source of the back pain at the location when the energy delivery system is operated in a configuration to deliver energy to the location of a spinal joint; and wherein the targeted agent comprises at least one of: a nerve factor, a blood vessel factor, an inflammatory cytokine, or a combination thereof; or a factor associated with pH or pO2 in tissue, optionally associated with a relatively low pH or pO2, respectively, or a binding agent or antibody respectively thereof. based upon the back pain diagnosis, preparing a volume of a targeted agent in combination with a delivery assembly in a configuration that is operable to allow delivery of the targeted agent to a region of the patient that comprises at least a portion of a spine, wherein the targeted agent is characterized by differentially binding to a pain factor at a location of a spinal joint associated with a source of the back pain when delivered into the patient; configuring at least one of an energy delivery system to deliver energy to the patient and an imaging system to image the pain factor at a location of a spinal joint; and wherein the targeted agent when delivered into the region of the patient that comprises at least a portion of a spine is further characterized to enhance at least one of (i) diagnostic localization of the source of the back pain at the location in the patient's body when the imaging system is operated in the configuration to image the location of a spinal joint and (ii) selective tissue therapy of the source of the back pain at the location when the energy delivery system is operated in a configuration to deliver energy to the location of a spinal joint; and wherein the targeted agent comprises at least one of: a nerve factor, a blood vessel factor, an inflammatory cytokine, or a combination thereof; or a factor associated with pH or pO2 in tissue, optionally associated with a relatively low pH or pO2, respectively, or a binding agent or antibody respectively thereof.
An outdoor unit for an air conditioner, comprising: cabinet formed by a plurality of panels defining a case; a heat exchanger accommodated in the case; a blower fan forcibly discharging air upward; and a control box provided below the blower fan, wherein the control box has an interior partitioned into a plurality of compartments in which electronic components are installed, and defines an air passage to radiate heat generated by the electronic components, characterized in that the control box further includes: an upper supporting plate; and a lower supporting plate below the upper supporting plate, wherein the interior of the control box is partitioned into a front compartment and a rear compartment by the upper supporting plate and the lower supporting plate, wherein the electronic components less generating heat are disposed in the front compartment, and the electronic components more generating heat are disposed in the rear compartment. cabinet formed by a plurality of panels defining a case; a heat exchanger accommodated in the case; a blower fan forcibly discharging air upward; and a control box provided below the blower fan, wherein the control box has an interior partitioned into a plurality of compartments in which electronic components are installed, and defines an air passage to radiate heat generated by the electronic components, characterized in that the control box further includes: an upper supporting plate; and a lower supporting plate below the upper supporting plate, wherein the interior of the control box is partitioned into a front compartment and a rear compartment by the upper supporting plate and the lower supporting plate, wherein the electronic components less generating heat are disposed in the front compartment, and the electronic components more generating heat are disposed in the rear compartment. an upper supporting plate; and a lower supporting plate below the upper supporting plate, wherein the interior of the control box is partitioned into a front compartment and a rear compartment by the upper supporting plate and the lower supporting plate, wherein the electronic components less generating heat are disposed in the front compartment, and the electronic components more generating heat are disposed in the rear compartment.
A looped layer in the form of a laminate comprising an internal support element, made of a non-woven fabric, and a plurality of fibers and/or filaments secured to the external face of the support element so as to form loops for engaging with hooks, the attachment being made in at least one attachment region, while in at least one other so-called looped region the filaments and/or fibers are not secured to the support element so as to thus form loops, characterized in that in at least one zone of the at least one attachment region the attachment is only carried out in a partial manner, while in at least one other zone of the at least one attachment region the attachment is carried out in a complete manner.
A process for utilizing an adaptive algorithm to allow for variations in RFID transponders within a supply roll of a thermal printer, comprising the steps of: starting the thermal printer at a RF power level low enough to avoid detecting a RFID transponder; incrementing the RF power level up in steps until a RFID transponder is detected to determine a detection point; reading and saving a serialized tag identification, TID, field for the detected RFID transponder; increasing the RF power level; encoding data on the detected RFID transponder; reducing the RF power level back down to a selected read RF power level; reading and comparing the encoded data with data originally transmitted to confirm the encoded data is correct; and utilizing the detection point as a starting point for next RFID transponder. starting the thermal printer at a RF power level low enough to avoid detecting a RFID transponder; incrementing the RF power level up in steps until a RFID transponder is detected to determine a detection point; reading and saving a serialized tag identification, TID, field for the detected RFID transponder; increasing the RF power level; encoding data on the detected RFID transponder; reducing the RF power level back down to a selected read RF power level; reading and comparing the encoded data with data originally transmitted to confirm the encoded data is correct; and utilizing the detection point as a starting point for next RFID transponder.
An orchestration system comprising: memory; and at least one processing circuitry coupled to the memory, the at least one processing circuitry configured to perform operations to: obtain, from a plurality of connectivity nodes, physical location information and resource availability information associated with each of the plurality of connectivity nodes; generate an edge-to-edge location graph, ELG, based on the physical location information and the resource availability information, the ELG indicating a subset of the plurality of connectivity nodes that are available for executing a plurality of services associated with an edge workload; and provision the plurality of connectivity nodes with the ELG and a workflow execution plan to execute the plurality of services, the workflow execution plan including metadata with a geofence policy, wherein the geofence policy specifies geofence restrictions associated with each of the plurality of services. memory; and at least one processing circuitry coupled to the memory, the at least one processing circuitry configured to perform operations to: obtain, from a plurality of connectivity nodes, physical location information and resource availability information associated with each of the plurality of connectivity nodes; generate an edge-to-edge location graph, ELG, based on the physical location information and the resource availability information, the ELG indicating a subset of the plurality of connectivity nodes that are available for executing a plurality of services associated with an edge workload; and provision the plurality of connectivity nodes with the ELG and a workflow execution plan to execute the plurality of services, the workflow execution plan including metadata with a geofence policy, wherein the geofence policy specifies geofence restrictions associated with each of the plurality of services. obtain, from a plurality of connectivity nodes, physical location information and resource availability information associated with each of the plurality of connectivity nodes; generate an edge-to-edge location graph, ELG, based on the physical location information and the resource availability information, the ELG indicating a subset of the plurality of connectivity nodes that are available for executing a plurality of services associated with an edge workload; and provision the plurality of connectivity nodes with the ELG and a workflow execution plan to execute the plurality of services, the workflow execution plan including metadata with a geofence policy, wherein the geofence policy specifies geofence restrictions associated with each of the plurality of services.
A beverage with reduced fading of a caramel coloring, the beverage meeting the following conditions to: the beverage contains RebA and RebM, and the ratio of the content of RebM to the content of RebA is 2.4 to 2.8, Lab values of the beverage are L: 45 to 55, a: 10 to 20 and b: 25 to 35, the content of caramel coloring is 0.01 to 0.5 wt% (w/w), the Brix of the beverage is 1 to 13, and the ratio of (i) a Lab value difference for the beverage before and after light irradiation and (ii) the Lab value difference for a control aqueous solution containing the caramel coloring at a concentration of 2960 mg/L, is from 0.99 to 1.01, the Lab value difference being ((L2-L1) 2 + (a2-a1) 2 + (b2-b1) 2) 1/2 where L1 is the L value before light irradiation, L2 is the L value after light irradiation; a1 is the a value before light irradiation, a2 is the a value after light irradiation; b1 is the b value before light irradiation, b2 is the b value after light irradiation, and the light irradiation is at 55000 lux for 15 hours and 15 minutes. the beverage contains RebA and RebM, and the ratio of the content of RebM to the content of RebA is 2.4 to 2.8, Lab values of the beverage are L: 45 to 55, a: 10 to 20 and b: 25 to 35, the content of caramel coloring is 0.01 to 0.5 wt% (w/w), the Brix of the beverage is 1 to 13, and the ratio of (i) a Lab value difference for the beverage before and after light irradiation and (ii) the Lab value difference for a control aqueous solution containing the caramel coloring at a concentration of 2960 mg/L, is from 0.99 to 1.01, the Lab value difference being ((L2-L1) 2 + (a2-a1) 2 + (b2-b1) 2) 1/2 where L1 is the L value before light irradiation, L2 is the L value after light irradiation; a1 is the a value before light irradiation, a2 is the a value after light irradiation; b1 is the b value before light irradiation, b2 is the b value after light irradiation, and the light irradiation is at 55000 lux for 15 hours and 15 minutes. L1 is the L value before light irradiation, L2 is the L value after light irradiation; a1 is the a value before light irradiation, a2 is the a value after light irradiation; b1 is the b value before light irradiation, b2 is the b value after light irradiation, and the light irradiation is at 55000 lux for 15 hours and 15 minutes.
Use of a Real Michael Addition crosslinkable composition for the preparation of a floor coating, said RMA crosslinkable composition comprising at least one crosslinkable component comprising reactive components A and B each comprising at least 2 reactive groups wherein the at least 2 reactive groups of component A are acidic protons (C-H) in activated methylene or methine groups, and the at least 2 reactive groups of component B are activated unsaturated groups (C=C) which reactive groups react to achieve crosslinking by RMA reaction between said at least one crosslinkable components in the presence of a base catalyst, preferably comprising a reactivity moderator D comprising an X-H group that is also a Michael addition donor reactable with component B under the action of catalyst C, wherein X is C, N, P, O or S to improve open time and preferably an alcohol with 2 to 12 carbon atoms to improve potlife.