mhurhangee/ep-ind-claims huggingface dataset:
A first base station, BS, comprising: at least one storage device, configured to store program codes; a first communication interfacing device, configured to transmit signals to or to receive signals from at least one other BS; a second communication interfacing device, configured to transmit signals to or to receive signals from at least one communication device; at least one processing circuit, coupled to the at least one storage device and the first and second communication interfacing devices, configured to execute the program codes comprising following steps when a first communication device is in dual connectivity with the first BS and a second BS, wherein the first BS is a fifth generation, 5G, BS of a new radio, NR, network and the second BS is an evolved NodeB, eNB, of a long term evolution, LTE, network: (a) associating a first packet data convergence protocol, PDCP, service data unit, SDU, to a first PDCP sequence number, SN, wherein the first PDCP SDU comprises a flow identifier, ID, identifying a data flow and an internet protocol, IP, packet; (b) initiating a secondary cell group, SCG, change for the first communication device with the second BS; and (c) controlling the first communication interfacing device to forward the IP packet but not to forward the flow ID, to the second BS in response to the SCG change. at least one storage device, configured to store program codes; a first communication interfacing device, configured to transmit signals to or to receive signals from at least one other BS; a second communication interfacing device, configured to transmit signals to or to receive signals from at least one communication device; at least one processing circuit, coupled to the at least one storage device and the first and second communication interfacing devices, configured to execute the program codes comprising following steps when a first communication device is in dual connectivity with the first BS and a second BS, wherein the first BS is a fifth generation, 5G, BS of a new radio, NR, network and the second BS is an evolved NodeB, eNB, of a long term evolution, LTE, network: (a) associating a first packet data convergence protocol, PDCP, service data unit, SDU, to a first PDCP sequence number, SN, wherein the first PDCP SDU comprises a flow identifier, ID, identifying a data flow and an internet protocol, IP, packet; (b) initiating a secondary cell group, SCG, change for the first communication device with the second BS; and (c) controlling the first communication interfacing device to forward the IP packet but not to forward the flow ID, to the second BS in response to the SCG change. (a) associating a first packet data convergence protocol, PDCP, service data unit, SDU, to a first PDCP sequence number, SN, wherein the first PDCP SDU comprises a flow identifier, ID, identifying a data flow and an internet protocol, IP, packet; (b) initiating a secondary cell group, SCG, change for the first communication device with the second BS; and (c) controlling the first communication interfacing device to forward the IP packet but not to forward the flow ID, to the second BS in response to the SCG change.
Portable power tool with a housing, a motor arranged in the housing for driving an insertion tool, and with a pump unit for driving a coolant and lubricant flow for cooling and lubricating at least one heavily loaded component, characterized in that the pump unit is arranged in the housing and is provided for generating an air flow, wherein the portable power tool comprises a Venturi nozzle for mixing lubricant droplets with the air flow.
An optical fiber cable comprising: a plurality of stranded core subunits, each core subunit comprising a flexible sheath and a plurality of ribbons arranged in a ribbon group, wherein the ribbon group includes a medial subgroup of stacked optical fiber ribbons with at least one set of lateral subgroups (44a, 44b) on opposite sides thereof, wherein each subgroup is progressively smaller starting at the medial subgroup and moving to the lateral subgroups (44a, 44b), wherein each ribbon of the plurality of ribbons comprises a plurality of optical fibers such that 50-70% of the cross-sectional area inside the sheath is occupied by the optical fibers; and a jacket surrounding the plurality of stranded core subunits, characterized in that the sheath is tight in that it conforms to a shape of the ribbon group and keeps all of the individual ribbons acting as a whole during longitudinal translation between the subunits inside the cable during cable bending, wherein the sheath comprises an extruded polymer material having a modulus of elasticity less than 800 MPa at room temperature, and the jacket comprises at least two strength elements (32,33), each strength element (32,33) on diametrically opposite sides of the cable, wherein the at least two strength elements (32,33) comprise two pairs of strength elements, each pair of strength elements embedded within the jacket on diametrically opposite sides of the cable. a plurality of stranded core subunits, each core subunit comprising a flexible sheath and a plurality of ribbons arranged in a ribbon group, wherein the ribbon group includes a medial subgroup of stacked optical fiber ribbons with at least one set of lateral subgroups (44a, 44b) on opposite sides thereof, wherein each subgroup is progressively smaller starting at the medial subgroup and moving to the lateral subgroups (44a, 44b), wherein each ribbon of the plurality of ribbons comprises a plurality of optical fibers such that 50-70% of the cross-sectional area inside the sheath is occupied by the optical fibers; and a jacket surrounding the plurality of stranded core subunits, characterized in that the sheath is tight in that it conforms to a shape of the ribbon group and keeps all of the individual ribbons acting as a whole during longitudinal translation between the subunits inside the cable during cable bending, wherein the sheath comprises an extruded polymer material having a modulus of elasticity less than 800 MPa at room temperature, and the jacket comprises at least two strength elements (32,33), each strength element (32,33) on diametrically opposite sides of the cable, wherein the at least two strength elements (32,33) comprise two pairs of strength elements, each pair of strength elements embedded within the jacket on diametrically opposite sides of the cable.
System for hooking/unhooking on a window (13, 113) an end of an actuating element (17, 117) of a fitting (11, 111) suitable for acting on the window (13, 113) to command the automatic tilt-opening/closing thereof, said system for hooking/unhooking comprising fastening means (19, 20, 119, 120) designed to be kinematically connectable to a handle (18, 118) of the window to be moved, by acting on the handle, the system for hooking/ unhooking is, when installed, switchable between a configuration for manual opening, in which the actuating element (17, 117) is not fastened to the window (13, 113), and a configuration for automatic opening, in which the end of the actuating element (17, 117) is fastened in a fixed position with respect to the window (13, 113), characterised in that the fastening means (19, 119, 20, 120) comprises an abutment (19, 119) that is fixable to the window (13, 113) and a movable element (20, 120) that is designed to be kinematically connectable to the handle (18, 118) of the window (13, 113) to be moved between a position wherein it cooperates with the fixed abutment (19, 119) to cage the end of the actuating element (17, 117) between the fixed abutment (19, 119) and the movable element (20, 120), thereby fastening the actuating element (17, 117) to the window (13, 113), and a position wherein it does not cooperate with the fixed abutment (19, 119), the window (13, 113) thus being unfastened from the actuating element (17, 117).
Buckle for connecting a functional element to a belt loop, having a base element which comprises a bottom region and two web elements and which can be inserted under the belt loop in such a way that the bottom region is arranged below the belt loop and the web elements engage around the belt loop on both sides, and having a connecting element which can be latched to the web elements of the base element arranged on the belt loop, wherein the connecting element comprises a support element which engages around the web elements of the base element in the connected state. having a base element which comprises a bottom region and two web elements and which can be inserted under the belt loop in such a way that the bottom region is arranged below the belt loop and the web elements engage around the belt loop on both sides, and having a connecting element which can be latched to the web elements of the base element arranged on the belt loop, wherein the connecting element comprises a support element which engages around the web elements of the base element in the connected state.
A method for providing a durable and inspectable tensile member assembly including synthetic fibers as a primary tension-carrying element, the method comprising the steps of: a. providing a core of synthetic fibers, said core having a first end; b. attaching a first fixed termination to said first end of said core; c. providing a first inspection region proximate said first fixed termination,; d. providing a jacket surrounding said core but not covering said first inspection region; e. wherein said jacket protects said core of synthetic fibers; f. providing a first removable cover configured to selectably cover said first inspection region; and g. said first removable cover providing a seal over said first inspection area; h. removing said first removable cover to permit inspection of said core within said first inspection area wherein the seal provided by the first removable cover is removable to allow said inspection region to selectively provide access to at least one critical tensile member assembly area while the fixed termination remains in place and in that said first removable cover is releasably engageable with the jacket and/or the first fixed termination to prevent the ingress of unwanted factors. a. providing a core of synthetic fibers, said core having a first end; b. attaching a first fixed termination to said first end of said core; c. providing a first inspection region proximate said first fixed termination,; d. providing a jacket surrounding said core but not covering said first inspection region; e. wherein said jacket protects said core of synthetic fibers; f. providing a first removable cover configured to selectably cover said first inspection region; and g. said first removable cover providing a seal over said first inspection area; h. removing said first removable cover to permit inspection of said core within said first inspection area
A fluid control valve configured to be incorporated in a circulatory flow passageway for circulating fluid between an engine and a heat exchanger, the fluid control valve comprising: an inflow channel for introducing the fluid; an outflow channel for discharging the fluid; a valve seat; a valve body for blocking/allowing communication between the inflow channel and the outflow channel in association with a movement thereof into contact with or away from the valve seat; and a solenoid configured to apply a magnetic force to the valve body, the magnetic force being generated in response to supply of electric power to the solenoid; wherein the inflow channel is formed through a core of the solenoid so that the core and the fluid come into contact with each other in the inflow channel, and the solenoid includes a yoke disposed radially outward as seen in an axial direction of the core; characterized in that an end face of the core on the side of the valve body protrudes more toward the valve body than an end face of the yoke on the side of the valve body. an inflow channel for introducing the fluid; an outflow channel for discharging the fluid; a valve seat; a valve body for blocking/allowing communication between the inflow channel and the outflow channel in association with a movement thereof into contact with or away from the valve seat; and a solenoid configured to apply a magnetic force to the valve body, the magnetic force being generated in response to supply of electric power to the solenoid; wherein the inflow channel is formed through a core of the solenoid so that the core and the fluid come into contact with each other in the inflow channel, and the solenoid includes a yoke disposed radially outward as seen in an axial direction of the core; characterized in that an end face of the core on the side of the valve body protrudes more toward the valve body than an end face of the yoke on the side of the valve body.
A composite case for an electronic device comprising: a resilient portion forming an inner case (30, 206) configured to encapsulate an electronic device, the resilient portion dimensioned to cover two end portions of the electronic device and less than half of a back portion of the electronic device; and a rigid portion forming an outer case, the rigid portion dimensioned to fit with the resilient portion (30, 206), the rigid portion dimensioned to provide a cover for at least part of the back portion of the electronic device; wherein the rigid portion of the case includes a geometric design (80A, 80B) formed in the rear of the rigid portion, the geometric design (80A, 80B) configured to stiffen and strengthen the rigid portion; whereby the geometric design (80A, 80B) is configured to contact a corresponding hole formed in the shape of a mating geometry in the resilient portion (30, 206) of the case, whereby the mating geometry is configured to accommodate the geometric design (80A, 80B); characterized in that a region of the rigid portion is raised toward the electronic device containable by the case and the raised region is generally rectangular with lines radiating from corners of the rectangle and a center portion of the rectangle. a resilient portion forming an inner case (30, 206) configured to encapsulate an electronic device, the resilient portion dimensioned to cover two end portions of the electronic device and less than half of a back portion of the electronic device; and a rigid portion forming an outer case, the rigid portion dimensioned to fit with the resilient portion (30, 206), the rigid portion dimensioned to provide a cover for at least part of the back portion of the electronic device; wherein the rigid portion of the case includes a geometric design (80A, 80B) formed in the rear of the rigid portion, the geometric design (80A, 80B) configured to stiffen and strengthen the rigid portion; whereby the geometric design (80A, 80B) is configured to contact a corresponding hole formed in the shape of a mating geometry in the resilient portion (30, 206) of the case, whereby the mating geometry is configured to accommodate the geometric design (80A, 80B); characterized in that a region of the rigid portion is raised toward the electronic device containable by the case and the raised region is generally rectangular with lines radiating from corners of the rectangle and a center portion of the rectangle.
A method of a wireless communication device of acquiring position information, comprising: transmitting (S100a), to a service-providing node, a request for service; receiving (S100b), from the service-providing node, a request for information indicating the position of the wireless communication device; receiving, from a network node, information indicating a position of the wireless communication device via broadcast or via a System Information Block, SIB, the information having been provided with an indication of authenticity by the network node; and transmitting (S104a), to the service-providing node, the position information having been provided with an indication of authenticity. transmitting (S100a), to a service-providing node, a request for service; receiving (S100b), from the service-providing node, a request for information indicating the position of the wireless communication device; receiving, from a network node, information indicating a position of the wireless communication device via broadcast or via a System Information Block, SIB, the information having been provided with an indication of authenticity by the network node; and transmitting (S104a), to the service-providing node, the position information having been provided with an indication of authenticity.
A noninvasive method for diagnosing dandruff condition in a subject comprising: detecting a level of the biomarker Myeloperoxidase in an epithelial cell sample/skin cell sample obtained from the subject; and diagnosing the subject as having oxidative stress and/or oxidative damage based on the level of a detected biomarker, wherein there is a change in biomarker level when compared to a baseline level of biomarker; and thus diagnosing dandruff condition. detecting a level of the biomarker Myeloperoxidase in an epithelial cell sample/skin cell sample obtained from the subject; and diagnosing the subject as having oxidative stress and/or oxidative damage based on the level of a detected biomarker, wherein there is a change in biomarker level when compared to a baseline level of biomarker; and thus diagnosing dandruff condition.
A mask for sealing an area around a patient's mouth and nose for delivery of an aerosol, comprising: a mask body having an opening for reception of the aerosol; and a mask seal portion connected to the mask body configured to engage a patient's face around the nose and mouth, wherein the mask seal portion has a configuration that includes a generally larger radiused lower portion for engagement of the patient's face between the chin and lips and upwardly along opposite sides of the patient's mouth, a generally smaller radiused upper portion for engagement of the patient's face across the bridge of the patient's nose, and a transition portion between the lower portion and the upper portion for engagement of the patient's nose and beneath the eyes, characterized in that the transition portion of the mask seal portion comprises a distal face engaging surface that is configured to bulge outwardly when pressure is developed within the mask to seal the transition portion to the patient's face more quickly in comparison with other regions of the seal, and wherein the transition portion has more material in its cross section than the lower portion, to enable the transition portion to perform greater deformation and displacement in relation to the lower portion and the upper portion to thus reduce the likelihood of gaseous medicine escaping from the mask. a mask body having an opening for reception of the aerosol; and a mask seal portion connected to the mask body configured to engage a patient's face around the nose and mouth, wherein the mask seal portion has a configuration that includes a generally larger radiused lower portion for engagement of the patient's face between the chin and lips and upwardly along opposite sides of the patient's mouth, a generally smaller radiused upper portion for engagement of the patient's face across the bridge of the patient's nose, and a transition portion between the lower portion and the upper portion for engagement of the patient's nose and beneath the eyes, characterized in that the transition portion of the mask seal portion comprises a distal face engaging surface that is configured to bulge outwardly when pressure is developed within the mask to seal the transition portion to the patient's face more quickly in comparison with other regions of the seal, and wherein the transition portion has more material in its cross section than the lower portion, to enable the transition portion to perform greater deformation and displacement in relation to the lower portion and the upper portion to thus reduce the likelihood of gaseous medicine escaping from the mask.
A document feeder comprising: a tray to include documents; a single motor; a pick-up device to move the documents from the tray to a document conveying path one by one; a lifting device to move the tray with the documents to a side of the pick-up device; a feeding device disposed in the document conveying path to convey the moved documents to be scanned; and first and second sensors (171, 173) to detect the documents in spaced positions on the document conveying path, the first and second sensors to output signals, wherein the pick-up device, the lifting device, and the feeding device are driven using the single motor, the first sensor is disposed close to the pick-up device to detect whether the document enters the document conveying path, the second sensor is disposed downstream of the document conveying path with respect to the first sensor, close to a first transfer roller of the feeding device to detect whether the document enters the feeding device, whereby a leading end of the document is detected by the second sensor as the document enters the first transfer roller, and the documents are moved by the pick-up device when the first sensor is in an off state and the second sensor is in an on state, whereby the second sensor is changed to the on state as the leading end of the document is detected by the second sensor. a tray to include documents; a single motor; a pick-up device to move the documents from the tray to a document conveying path one by one; a lifting device to move the tray with the documents to a side of the pick-up device; a feeding device disposed in the document conveying path to convey the moved documents to be scanned; and first and second sensors (171, 173) to detect the documents in spaced positions on the document conveying path, the first and second sensors to output signals, wherein the pick-up device, the lifting device, and the feeding device are driven using the single motor, the first sensor is disposed close to the pick-up device to detect whether the document enters the document conveying path, the second sensor is disposed downstream of the document conveying path with respect to the first sensor, close to a first transfer roller of the feeding device to detect whether the document enters the feeding device, whereby a leading end of the document is detected by the second sensor as the document enters the first transfer roller, and the documents are moved by the pick-up device when the first sensor is in an off state and the second sensor is in an on state, whereby the second sensor is changed to the on state as the leading end of the document is detected by the second sensor.