mhurhangee/ep-ind-claims huggingface dataset:
Vehicle electrical system having an inverter, an electrical energy store, an electrical machine and a DC transmission terminal (DC+, DC-) that is in the form of a plug-in connection or in the form of an on-vehicle device for inductive power transmission, wherein the inverter has a positive input current terminal and a negative input current terminal that are connected to the energy store; the inverter has at least two phase current terminals (PS1, PS2, PS3) connected to the electrical machine; and the inverter has at least two H-bridges (HB1, HB2, HB3), each of the H-bridges (HB1, HB2, HB3) being connected between the two input current terminals (EA1, EA2) and a respective one of the at least two phase current terminals (PS1, PS2, PS3), each H-bridge (HB1, HB2, HB3) comprising two arms, each arm comprising two switching elements, and these two switching elements each being connected to one another via a connecting point, wherein the two connecting points of these two arms of each H-bridge are connected to one another via an inductance (L1 - L3), and a first of these two arms in each H-bridge connects the two input current terminals (EA1, EA2), and a second of these two arms in each H-bridge connects a negative instance of the input current terminals and one of the phase current terminals (PS1, PS2, PS3), and wherein the DC transmission terminal (DC+, DC-) has a positive rail (DC+) connected to at least one of the phase current terminals (PS1, PS2, PS3) directly or via a switch, and wherein there is provision for no current to flow via the electrical machine from the DC transmission terminal (DC+, DC-) via the inverter during a charging process for the energy store. the inverter has at least two phase current terminals (PS1, PS2, PS3) connected to the electrical machine; and the inverter has at least two H-bridges (HB1, HB2, HB3), each of the H-bridges (HB1, HB2, HB3) being connected between the two input current terminals (EA1, EA2) and a respective one of the at least two phase current terminals (PS1, PS2, PS3), each H-bridge (HB1, HB2, HB3) comprising two arms, each arm comprising two switching elements, and these two switching elements each being connected to one another via a connecting point, wherein the two connecting points of these two arms of each H-bridge are connected to one another via an inductance (L1 - L3), and a first of these two arms in each H-bridge connects the two input current terminals (EA1, EA2), and a second of these two arms in each H-bridge connects a negative instance of the input current terminals and one of the phase current terminals (PS1, PS2, PS3), and wherein the DC transmission terminal (DC+, DC-) has a positive rail (DC+) connected to at least one of the phase current terminals (PS1, PS2, PS3) directly or via a switch, and wherein there is provision for no current to flow via the electrical machine from the DC transmission terminal (DC+, DC-) via the inverter during a charging process for the energy store.
A thermally conductive resin, represented by formula: wherein X 1 is or X 2 is or m is an integer ranging from 0 to 95, n is an integer ranging from 1 to 50, and o is an integer ranging from 1 to 80.
A system for providing cascaded multi-point conference units (1100, 1200, 1300, 3100, 3200, 3300, 3400, 5100, 5200, 5300), comprising: at least one encoder (1122, 3211, 5211, 5213) that encodes a video signal into representations using a scalable video protocol based on required configurations of parameters for a first multi-point conferencing unit, MCU, (1200, 3300, 5100) and a second MCU (1300, 3400, 5300), wherein the encoder (1122, 3211, 5211, 5213) is in a third MCU (1100, 3200, 5200) and wherein the representations are configured with different configurations of parameters as required by the first and second MCUs (1200, 1300, 3300, 3400,5100,5300); and at least one interface that distributes a first one of the representations to the first MCU (1200, 3300, 5100) and a second one of the representations to the second MCU (1300, 3400, 5300) without distributing the first one of the representations to the second MCU (1300, 3400, 5300). at least one encoder (1122, 3211, 5211, 5213) that encodes a video signal into representations using a scalable video protocol based on required configurations of parameters for a first multi-point conferencing unit, MCU, (1200, 3300, 5100) and a second MCU (1300, 3400, 5300), wherein the encoder (1122, 3211, 5211, 5213) is in a third MCU (1100, 3200, 5200) and wherein the representations are configured with different configurations of parameters as required by the first and second MCUs (1200, 1300, 3300, 3400,5100,5300); and at least one interface that distributes a first one of the representations to the first MCU (1200, 3300, 5100) and a second one of the representations to the second MCU (1300, 3400, 5300) without distributing the first one of the representations to the second MCU (1300, 3400, 5300).
Rotary slide valve of a motor vehicle cooling circuit, comprising - a valve housing, - a control body movably arranged in the valve housing and having a cylindrical outer contour, wherein, by movement of the control body, it is possible to adjust a flow section between a first valve port and a second valve port arranged perpendicular to a valve longitudinal axis of the control body, and - a sealing unit set on the outer contour of the control body within the second valve port, wherein the sealing unit comprises a sealing element for slidable sealing, a support element for supporting at least the sealing element, and a spring element for the axial pretensioning of the sealing element, wherein the sealing element rests against the outer contour of the control body by an axial sealing end face facing the regulating body, and the carrier element rests against the sealing element by an axial end facing to the control body and rests on the spring element by second axial end facing away from the control body, characterized in that the sealing element has an axial fastening portion extending through an axial receptacle of the carrier element formed as a bore, groove or undercut in the support element, and via which the sealing element is fastened to the support element, the axial receptacle of the support element being formed corresponding to the fastening portion of the sealing element. - a valve housing, - a control body movably arranged in the valve housing and having a cylindrical outer contour, wherein, by movement of the control body, it is possible to adjust a flow section between a first valve port and a second valve port arranged perpendicular to a valve longitudinal axis of the control body, and - a sealing unit set on the outer contour of the control body within the second valve port,
A pneumatic tire, comprising: an annular-shape tread portion extending in a tire circumferential direction; a pair of sidewall portions disposed on both sides of the tread portion; and a pair of bead portions disposed on an inner side in a tire radial direction of the sidewall portion; snow traction index based on grooves and sipes (23, 33, 43, 53) formed on the tread portion being 180 or higher, and a rotation direction being specified; and wherein a rib positioned between a pair of circumferential grooves and continuous in the tire circumferential direction is demarcated in a center region of the tread portion, a plurality of closed grooves with a first end closed inside the rib and a second end opening in one of the circumferential grooves are formed in the rib, the closed grooves are inclined with regard to a tire axial direction such that closed ends thereof face a leading side, a groove wall of the closed groove on the leading side protrudes more outward in the tire axial direction than a groove wall on a trailing side, and a difference between an angle θ1 of the groove walls on the leading side of the closed grooves with regard to the tire axial direction and an angle θ2 of the groove walls on the trailing side with regard to the tire axial direction is within a range of 0° ≤ θ1 - θ2 ≤ 5°, characterized in that the JIS hardness of a thread rubber configuring the tread portion being within a range of 40 to 60, wherein the JIS hardness is durometer hardness measured in accordance with JIS K-6253 using a type A durometer at a temperature of 20°C and in that a ratio W/D of a groove width W with regard to a groove depth D of the closed groove is within a range of 0.10 to 0.30. an annular-shape tread portion extending in a tire circumferential direction; a pair of sidewall portions disposed on both sides of the tread portion; and a pair of bead portions disposed on an inner side in a tire radial direction of the sidewall portion; snow traction index based on grooves and sipes (23, 33, 43, 53) formed on the tread portion being 180 or higher, and a rotation direction being specified; and wherein
A transformable toy, comprising: a first rotary member and a second rotary member, wherein the first and the second rotary members are rotatable relative to one another between a first rotary position and a second rotary position, and between the second rotary position and a third rotary position; a barrier that is movable between a blocking position and a release position wherein in the blocking position, the barrier prevents relative rotation between the first and second rotary members past the second rotary position, and wherein in the release position, the barrier permits relative rotation between the first and second rotary members past the second rotary position to the third rotary position; a barrier biasing member that urges the barrier from a first of the blocking and release positions towards a second of the blocking and release positions, and a barrier holder that is movable between a holding position in which the barrier holder holds the barrier in the first of the blocking and release positions and a travel position in which the barrier holder permits movement of the barrier from the first of the blocking and release positions to the second of the blocking and release positions. a first rotary member and a second rotary member, wherein the first and the second rotary members are rotatable relative to one another between a first rotary position and a second rotary position, and between the second rotary position and a third rotary position; a barrier that is movable between a blocking position and a release position wherein in the blocking position, the barrier prevents relative rotation between the first and second rotary members past the second rotary position, and wherein in the release position, the barrier permits relative rotation between the first and second rotary members past the second rotary position to the third rotary position; a barrier biasing member that urges the barrier from a first of the blocking and release positions towards a second of the blocking and release positions, and a barrier holder that is movable between a holding position in which the barrier holder holds the barrier in the first of the blocking and release positions and a travel position in which the barrier holder permits movement of the barrier from the first of the blocking and release positions to the second of the blocking and release positions.
A rod comprising a first sheet comprising tobacco material and a second sheet comprising a non-tobacco flavourant, the first sheet and the second sheet gathered together and circumscribed by a wrapper.
Nail for use in a nail setter, which is made of a predominantly lignocellulosic material and has a nail shank, at the front end of which a nail tip designed as a conical round tip is provided, and at the rear end region of which a head region is formed, wherein the tip angle of the nail tip is > 40.
An embolic material comprising at least one microsphere comprising carboxymethyl chitosan crosslinked with carboxymethyl cellulose and having compressibility sufficient to permit the at least one microsphere to be introduced through a catheter or syringe, further comprising a therapeutic agent.
A method for configuring service, applied to an optical transport network device, called an OTN device, the method comprises receiving, by an OTN device at a radio remote unit side, called a RRU side, a multiframe structure indicator high-order overhead byte, called a MSI high-order overhead byte, sent by an OTN device at a building base band unit side, called a BBU side; extracting information from the MSI high-order overhead byte and configuring line-side service data according to the information extracted from the MSI high-order overhead byte; receiving a MSI low-order overhead byte sent by the OTN device at the BBU side; and extracting information from the MSI low-order overhead byte and configuring client-side service data according to the information extracted from the MSI low-order overhead byte. receiving, by an OTN device at a radio remote unit side, called a RRU side, a multiframe structure indicator high-order overhead byte, called a MSI high-order overhead byte, sent by an OTN device at a building base band unit side, called a BBU side; extracting information from the MSI high-order overhead byte and configuring line-side service data according to the information extracted from the MSI high-order overhead byte; receiving a MSI low-order overhead byte sent by the OTN device at the BBU side; and extracting information from the MSI low-order overhead byte and configuring client-side service data according to the information extracted from the MSI low-order overhead byte.
An apparatus, comprising: an interface; processing logic coupled with the interface; wherein the processing logic receives via the interface a list of location area codes detected by an access point associated with a site group to be provisioned with a location area code, LAC; wherein the processing logic removes from a predefined list of location area codes the location area codes detected by the access point; wherein the processing logic uses location data to determine whether undetected access points belonging to another network are within a predefined proximity of the access point to be provisioned with a LAC; wherein the processing logic removes location area codes assigned to the undetected access points belonging to another network within the predefined proximity of the access point from the predefined LAC list; wherein the processing logic selects a LAC from the predefined list for the site group after removing the location area codes detected by the access point and after removing location area codes assigned to the undetected access points belonging to another network within the predefined proximity of the access point from the predefined LAC list; and wherein the processing logic provisions the access point with the selected LAC via the interface. an interface; processing logic coupled with the interface; wherein the processing logic receives via the interface a list of location area codes detected by an access point associated with a site group to be provisioned with a location area code, LAC; wherein the processing logic removes from a predefined list of location area codes the location area codes detected by the access point; wherein the processing logic receives via the interface a list of location area codes detected by an access point associated with a site group to be provisioned with a location area code, LAC; wherein the processing logic removes from a predefined list of location area codes the location area codes detected by the access point; wherein the processing logic uses location data to determine whether undetected access points belonging to another network are within a predefined proximity of the access point to be provisioned with a LAC; wherein the processing logic removes location area codes assigned to the undetected access points belonging to another network within the predefined proximity of the access point from the predefined LAC list; wherein the processing logic selects a LAC from the predefined list for the site group after removing the location area codes detected by the access point and after removing location area codes assigned to the undetected access points belonging to another network within the predefined proximity of the access point from the predefined LAC list; and wherein the processing logic provisions the access point with the selected LAC via the interface.
A method for service flow retention in a wireless communication system, the method being implemented by a subscriber station, the method comprising: determining whether to retain a service flow between the subscriber station and a base station during an idle mode of the subscriber station, wherein the determining is based on a data demand metric, and wherein the data demand metric indicates the likelihood that data demand for the service flow will resume within a particular amount of time; reactivating the retained service flow when the subscriber station exits the idle mode; monitoring whether the reactivated service flow has data activity; and deleting the reactivated service flow if there is no data activity. determining whether to retain a service flow between the subscriber station and a base station during an idle mode of the subscriber station, wherein the determining is based on a data demand metric, and wherein the data demand metric indicates the likelihood that data demand for the service flow will resume within a particular amount of time; reactivating the retained service flow when the subscriber station exits the idle mode; monitoring whether the reactivated service flow has data activity; and deleting the reactivated service flow if there is no data activity.
An apparatus for receiving wireless power from a wireless power transmitter, the apparatus comprising: first means for receiving wireless power from the transmitter and having a first mutual coupling with the transmitter; second means for receiving wireless power from the transmitter and having a second mutual coupling with the transmitter, the second means for receiving wireless power designed for substantially the same frequency of operation as the first means for receiving wireless power; and a load coupled to at least one of the first means for receiving wireless power and the second means for receiving wireless power, wherein an angle of orientation between the first means for receiving wireless power from the transmitter and the second means for receiving wireless power from the transmitter is variable; wherein the apparatus is configured to detect power received by the first means for receiving wireless power from the transmitter and by the second means for receiving wireless power from the transmitter; and select between receiving wireless power via at least one of the first means for receiving wireless power and the second means for receiving wireless power based on the detection. first means for receiving wireless power from the transmitter and having a first mutual coupling with the transmitter; second means for receiving wireless power from the transmitter and having a second mutual coupling with the transmitter, the second means for receiving wireless power designed for substantially the same frequency of operation as the first means for receiving wireless power; and a load coupled to at least one of the first means for receiving wireless power and the second means for receiving wireless power, wherein an angle of orientation between the first means for receiving wireless power from the transmitter and the second means for receiving wireless power from the transmitter is variable; wherein the apparatus is configured to detect power received by the first means for receiving wireless power from the transmitter and by the second means for receiving wireless power from the transmitter; and select between receiving wireless power via at least one of the first means for receiving wireless power and the second means for receiving wireless power based on the detection.
A method comprising: receiving input including: coordinates of one or more regions to be fabricated on a build plate, a laser boundary for each of two or more lasers, wherein the lasers fabricate the one or more regions, and a processing time for each region; deriving a prioritized sequence of the one or more regions to be fabricated; determining, based on the received coordinates and received laser boundary, one or more potential lasers assignments for each region; determining, based on the determined potential laser assignments, the prioritized sequence of the one or more regions, and the processing time for each region, a laser-to-region sequence for the one or more lasers to fabricate the one or more regions; assigning the determined laser-to-region sequence to the one or more lasers for fabrication of the one or more regions, the method is characterised by receiving a smoke drift model, and determining the laser-to-region sequence based on execution of the received smoke drift model, wherein the smoke drift model outputs a lag time for activation of a second laser based on a time for smoke from a first laser to dissipate. receiving input including: coordinates of one or more regions to be fabricated on a build plate, a laser boundary for each of two or more lasers, wherein the lasers fabricate the one or more regions, and a processing time for each region; deriving a prioritized sequence of the one or more regions to be fabricated; determining, based on the received coordinates and received laser boundary, one or more potential lasers assignments for each region; determining, based on the determined potential laser assignments, the prioritized sequence of the one or more regions, and the processing time for each region, a laser-to-region sequence for the one or more lasers to fabricate the one or more regions; assigning the determined laser-to-region sequence to the one or more lasers for fabrication of the one or more regions, the method is characterised by receiving a smoke drift model, and determining the laser-to-region sequence based on execution of the received smoke drift model, wherein the smoke drift model outputs a lag time for activation of a second laser based on a time for smoke from a first laser to dissipate.
A mouthguard for protecting teeth against impact, comprising: a front portion and first and second arms connected to the front portion, wherein at least one of the first and second arms comprises: an arm base portion; an arm inner wall extending from an inner edge of the base portion; and an arm outer wall extending from an outer edge of the base portion, characterised in that the front portion comprises a front portion outer wall comprising a plurality of independently movable front portion outer wall sections (258a-b) rotatable relative to an adjacent front portion outer wall section to increase a separation between the first and second arms, and wherein at least a portion of the arm inner and arm outer walls is resiliently deformable, for gripping the teeth of the wearer. a front portion and first and second arms connected to the front portion, wherein at least one of the first and second arms comprises: an arm base portion; an arm inner wall extending from an inner edge of the base portion; and an arm outer wall extending from an outer edge of the base portion, characterised in that the front portion comprises a front portion outer wall comprising a plurality of independently movable front portion outer wall sections (258a-b) rotatable relative to an adjacent front portion outer wall section to increase a separation between the first and second arms, an arm base portion; an arm inner wall extending from an inner edge of the base portion; and an arm outer wall extending from an outer edge of the base portion, characterised in that the front portion comprises a front portion outer wall comprising a plurality of independently movable front portion outer wall sections (258a-b) rotatable relative to an adjacent front portion outer wall section to increase a separation between the first and second arms, and wherein at least a portion of the arm inner and arm outer walls is resiliently deformable, for gripping the teeth of the wearer.