mhurhangee/ep-ind-claims huggingface dataset:
A threaded insert (34, 134) for inserting into a bored hole comprising - a threaded insert sleeve (22, 122) with an external thread, - a drive element (10, 110, 210, 310, 410) for transmitting a torque to the threaded insert sleeve (22, 122), wherein the drive element (10, 110, 210, 310, 410) comprises: - a receptacle with a drive profile, in which along a longitudinal axis of the drive element a drive tool for transmitting a torque from the drive tool to the drive element can be received, wherein the longitudinal axis passes through the centre of the drive profile and corresponds to a rotation axis of the drive element (10, 110, 210, 310, 410), about which the drive element rotates when transmitting the torque from the drive tool to the drive element, - an axial connecting section with an outer surface for forming a materially bonded, form-fitting and/or force-fitting connection to the threaded insert sleeve (22, 122), wherein via the outer surface, when a connection to a threaded insert sleeve is formed, a torque can be transmitted from the drive element (10, 110, 210, 310, 410) to the threaded insert sleeve (22, 122), wherein the drive element (10, 110, 210, 310, 410), at least in some sections, comprises a cross-sectional area in which a circular line can be inscribed with a centre, through which the rotational axis passes. wherein the connecting section is arranged in the leading half, preferably at the leading end of the threaded insert sleeve (22, 122) inside the threaded insert sleeve, and is connected via a positive-fitting, materially bonded and/or force-fitting connection to the threaded insert sleeve, in such a way that a torque transmitted to the drive element via the drive profile is transmitted from the drive element in a leading area onto the threaded insert sleeve, wherein the external thread of the threaded insert sleeve is present in said leading area. - a threaded insert sleeve (22, 122) with an external thread, - a drive element (10, 110, 210, 310, 410) for transmitting a torque to the threaded insert sleeve (22, 122), wherein the drive element (10, 110, 210, 310, 410) comprises: - a receptacle with a drive profile, in which along a longitudinal axis of the drive element a drive tool for transmitting a torque from the drive tool to the drive element can be received, wherein the longitudinal axis passes through the centre of the drive profile and corresponds to a rotation axis of the drive element (10, 110, 210, 310, 410), about which the drive element rotates when transmitting the torque from the drive tool to the drive element, - an axial connecting section with an outer surface for forming a materially bonded, form-fitting and/or force-fitting connection to the threaded insert sleeve (22, 122), wherein via the outer surface, when a connection to a threaded insert sleeve is formed, a torque can be transmitted from the drive element (10, 110, 210, 310, 410) to the threaded insert sleeve (22, 122),
A method for forming a glass sheet, the method comprising: supplying a feed of molten glass to an upper surface (116, 118) of a pair of forming rolls, the pair of forming rolls spaced apart by a forming gap, the forming gap having a width of less than or equal to about 800 microns, wherein the molten glass has a viscosity of less than or equal to about 20 Pa.s (200 poise); rotating the pair of forming rolls at a rate such as to continuously form at least 10 m/min of a glass sheet from the molten glass, the glass sheet having a thickness of less than or equal to about 800 microns immediately upon passing through the forming gap. supplying a feed of molten glass to an upper surface (116, 118) of a pair of forming rolls, the pair of forming rolls spaced apart by a forming gap, the forming gap having a width of less than or equal to about 800 microns, wherein the molten glass has a viscosity of less than or equal to about 20 Pa.s (200 poise); rotating the pair of forming rolls at a rate such as to continuously form at least 10 m/min of a glass sheet from the molten glass, the glass sheet having a thickness of less than or equal to about 800 microns immediately upon passing through the forming gap.
Method for analysing, via an access network of a wireless communication system, frequency resources within a predetermined multiplexing band, said wireless communication system comprising at least one terminal configured to select a transmission frequency, within the multiplexing band, on which to transmit an uplink message to the access network, characterised in that it comprises: - estimating, for at least one base station of the access network, capabilities to detect uplink messages in respectively different frequency sub-bands within the multiplexing band, - assessing, for each frequency sub-band, a predetermined service quality criterion depending on the detection capability estimated for said frequency sub-band, - transmitting, via the access network, a spectral map of service quality for said base station, representative of the frequency sub-bands for which the service quality criterion has been verified and the frequency sub-bands for which said service quality criterion has not been verified. - estimating, for at least one base station of the access network, capabilities to detect uplink messages in respectively different frequency sub-bands within the multiplexing band, - assessing, for each frequency sub-band, a predetermined service quality criterion depending on the detection capability estimated for said frequency sub-band, - transmitting, via the access network, a spectral map of service quality for said base station, representative of the frequency sub-bands for which the service quality criterion has been verified and the frequency sub-bands for which said service quality criterion has not been verified.
Heel piece device for a ski binding, in particular for a touring ski binding, the heel piece device comprising a base body which comprises a planar base area for support of the base body on a ski surface of a ski, a control element which is attached to the base body, an adjusting lever which is pivotable about a first rotation axis, wherein the adjusting lever is arranged along an adjustment direction spaced from the control element, a rod which is arranged on the base body, wherein the rod is on the one hand coupleable with the control element and is on the other hand coupled with the adjusting lever such that by an adjustment of the control element a displacement of the rod is generatable and a rotation of the adjusting lever about the first rotation axis is generatable, and a brake lever with a brake section and a couple section, wherein the brake lever is coupled pivotable about a second rotation axis with the base body, wherein the second rotation axis is displaceable relatively to the base body, wherein the brake section and the couple section extend in different directions from the second rotation axis, wherein the brake lever is attached with the couple section pivotable about a third rotation axis to the adjusting lever, and wherein the brake lever is coupled with the adjusting lever such that by a rotation of the adjusting lever a rotation of the brake lever about the second rotation axis is generatable.
A ventricular assist device, comprising: an intra-aortic balloon pump sized and shaped to dangle inside a patient's aorta, the pump having a wall made at least in part from a moisture-resistant material; a skin interface; an external driver comprising a rigid bellows, a prime mover for actuating the bellows, and valves arranged to permit multiple pumping modes; an internal drive line connecting the balloon pump to the skin interface; an arterial interface, sized and shaped to pass the internal drive line through an arterial wall; an external drive line connecting the skin interface to the driver; and a controller; wherein the balloon pump, the internal drive line, the skin interface, the external drive line, and the driver form a fluid system for containing a pumping medium; and the controller is programmed to: operate the valves (402, 403, 404) and prime mover such that the pumping medium is not pressurized more than a predetermined amount above a sensed blood pressure; cause the valves (402, 403, 404) to adopt a closed pumping mode in which no pumping medium is added to or vented from the device; cause the driver to pump through multiple consecutive inflation-deflation cycles during the closed mode; characterized in that: the pumping medium present in the fluid system comprises ambient air, and the controller is programmed to cause the valves (402, 403, 404) to adopt an open mode in which the pumping medium is vented from the fluid system and replaced with ambient air. an intra-aortic balloon pump sized and shaped to dangle inside a patient's aorta, the pump having a wall made at least in part from a moisture-resistant material; a skin interface; an external driver comprising a rigid bellows, a prime mover for actuating the bellows, and valves arranged to permit multiple pumping modes; an internal drive line connecting the balloon pump to the skin interface; an arterial interface, sized and shaped to pass the internal drive line through an arterial wall; an external drive line connecting the skin interface to the driver; and a controller; wherein the balloon pump, the internal drive line, the skin interface, the external drive line, and the driver form a fluid system for containing a pumping medium; and operate the valves (402, 403, 404) and prime mover such that the pumping medium is not pressurized more than a predetermined amount above a sensed blood pressure; cause the valves (402, 403, 404) to adopt a closed pumping mode in which no pumping medium is added to or vented from the device; cause the driver to pump through multiple consecutive inflation-deflation cycles during the closed mode; characterized in that: the pumping medium present in the fluid system comprises ambient air, and the controller is programmed to cause the valves (402, 403, 404) to adopt an open mode in which the pumping medium is vented from the fluid system and replaced with ambient air.
A device for securing a safety helmet to a vehicle such as a bicycle, the device comprising: a base element (Part A) affixed to or for affixing to the vehicle; a helmet-engaging element (Part A) for passing through an aperture in the safety helmet in order to secure it, the helmet-engaging element (Part A) being attached to or mounted on the base element (Part A) and being moveable between a compact stowed configuration and an extended operational configuration; and a locking element (Part B) for receiving and locking to at least a part of the helmet-engaging element (Part A), wherein the base element (Part A) is a housing for housing the helmet-engaging element (Part A) in its compact configuration and from which the helmet-engaging element (Part A) extends in its operational configuration, and wherein the helmet-engaging element (Part A) comprises a length of cable having a compact stowed configuration in a coil within the housing and an extended operational configuration in which an end of the cable extends from the housing and the cable is at least partially uncoiled from its stowed position characterized in that the locking element (Part B) is a discrete locking element separate from the base element (Part A), the locking element (Part B) being configured to receive and lock to at least a part of the helmet-engaging element (Part A), and comprising a lock (7,9) and being so configured as to prevent passage of the locking means through the aperture in the safety helmet, thereby securing the safety helmet to the vehicle, and the device further comprises a light or reflecting element which is part of the discrete locking element. a base element (Part A) affixed to or for affixing to the vehicle; a helmet-engaging element (Part A) for passing through an aperture in the safety helmet in order to secure it, the helmet-engaging element (Part A) being attached to or mounted on the base element (Part A) and being moveable between a compact stowed configuration and an extended operational configuration; and a locking element (Part B) for receiving and locking to at least a part of the helmet-engaging element (Part A), wherein the base element (Part A) is a housing for housing the helmet-engaging element (Part A) in its compact configuration and from which the helmet-engaging element (Part A) extends in its operational configuration, and wherein the helmet-engaging element (Part A) comprises a length of cable having a compact stowed configuration in a coil within the housing and an extended operational configuration in which an end of the cable extends from the housing and the cable is at least partially uncoiled from its stowed position
A method for an apparatus comprising an xDSL transceiver (200, 300), the method comprising: receiving a plurality of packets using deinterleaving and Reed Solomon, RS, decoding wherein each packet of the plurality of packets comprises a header field and a plurality of bytes and wherein the header field comprises a sequence identifier; storing the plurality of packets in a memory of the apparatus, such as in a retransmission buffer, for the storing of packets for retransmission functions; and transmitting a plurality of messages over a path with no delay due to interleaving, wherein each message of the plurality of messages includes an acknowledgement or a negative acknowledgement indicating whether a packet needs to be retransmitted, wherein each transmitted message of the plurality of messages is transmitted on subcarriers with an SNR margin that is higher than 6 dB, and wherein each transmitted message of the plurality of messages is transmitted in a in a different Discrete Multi-Tone, DMT, symbol. receiving a plurality of packets using deinterleaving and Reed Solomon, RS, decoding wherein each packet of the plurality of packets comprises a header field and a plurality of bytes and wherein the header field comprises a sequence identifier; storing the plurality of packets in a memory of the apparatus, such as in a retransmission buffer, for the storing of packets for retransmission functions; and transmitting a plurality of messages over a path with no delay due to interleaving, wherein each message of the plurality of messages includes an acknowledgement or a negative acknowledgement indicating whether a packet needs to be retransmitted, wherein each transmitted message of the plurality of messages is transmitted on subcarriers with an SNR margin that is higher than 6 dB, and wherein each transmitted message of the plurality of messages is transmitted in a in a different Discrete Multi-Tone, DMT, symbol.
Reverse vending machine having - an acceptance device for accepting at least one container, - at least one background unit for processing at least one container, and - a conveying system for conveying the at least one container from the acceptance device, in a conveying direction, to the at least one background unit, wherein a distributing device is arranged on the conveying system between the acceptance device and the at least one background unit, as seen in the conveying direction, and has - an inlet opening for letting in the at least one container, - a magazine having a plurality of segments, which can be rotated about an axis of rotation and is intended for accommodating the at least one container, and - at least one controllable ejecting device for ejecting the at least one container in dependence on a rotary position of the magazine, characterized in that the distributing device is designed to rotate the magazine at constant rotational speed during operation of the reverse vending machine, wherein the inlet opening is arranged on a housing, which encloses the magazine circumferentially, at least in part, about the axis of rotation, wherein the at least one container is directed from the acceptance device, via a conveying portion of the conveying system, to the inlet opening. - an acceptance device for accepting at least one container, - at least one background unit for processing at least one container, and - a conveying system for conveying the at least one container from the acceptance device, in a conveying direction, to the at least one background unit, - an inlet opening for letting in the at least one container, - a magazine having a plurality of segments, which can be rotated about an axis of rotation and is intended for accommodating the at least one container, and - at least one controllable ejecting device for ejecting the at least one container in dependence on a rotary position of the magazine,
An anti-Factor D antibody comprising a light chain variable domain having at least 90% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 7 and a heavy chain variable domain having at least 90% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 19, wherein (i) the light chain variable domain comprises HVR-1 comprising ITSTDIDDDMN (SEQ ID NO: 30), HVR-2 comprising GGNTLRP (SEQ ID NO: 35), and HVR-3 comprising LQSDSLPYT (SEQ ID NO: 38); and (ii) the heavy chain variable domain comprises HVR-1 comprising GYTFTNYGMN (SEQ ID NO: 39), HVR-2 comprising WINTYTGETTYADDFKG (SEQ ID NO: 40), and HVR-3 comprising EGGVNN (SEQ ID NO: 41); and wherein amino acid at position 1 of the heavy chain variable domain is E. (i) the light chain variable domain comprises HVR-1 comprising ITSTDIDDDMN (SEQ ID NO: 30), HVR-2 comprising GGNTLRP (SEQ ID NO: 35), and HVR-3 comprising LQSDSLPYT (SEQ ID NO: 38); and (ii) the heavy chain variable domain comprises HVR-1 comprising GYTFTNYGMN (SEQ ID NO: 39), HVR-2 comprising WINTYTGETTYADDFKG (SEQ ID NO: 40), and HVR-3 comprising EGGVNN (SEQ ID NO: 41); and wherein amino acid at position 1 of the heavy chain variable domain is E.
An apparatus comprising: - means for obtaining, from a timestamp, a truncated timestamp comprising a first number of least significant bits of the timestamp and not comprising at least one most significant bit of the timestamp, - means for deriving a hash value based at least in part on the timestamp, a payload and a secret value, - means for compiling a first message comprising the truncated timestamp, the payload and, at least in part, the hash value, and - means for transmitting the first message toward a recipient. - means for obtaining, from a timestamp, a truncated timestamp comprising a first number of least significant bits of the timestamp and not comprising at least one most significant bit of the timestamp, - means for deriving a hash value based at least in part on the timestamp, a payload and a secret value, - means for compiling a first message comprising the truncated timestamp, the payload and, at least in part, the hash value, and - means for transmitting the first message toward a recipient.
A dispersion composition comprising (a) emulsion particles having an average particle diameter of 200 nm or less and containing astaxanthin and a phospholipid; (b) at least one ascorbic acid derivative selected from magnesium ascorbyl phosphate and sodium ascorbyl phosphate; and (c) an oily component that is 20% by mass or less relative to the mass of the whole dispersion composition. (a) emulsion particles having an average particle diameter of 200 nm or less and containing astaxanthin and a phospholipid; (b) at least one ascorbic acid derivative selected from magnesium ascorbyl phosphate and sodium ascorbyl phosphate; and (c) an oily component that is 20% by mass or less relative to the mass of the whole dispersion composition.
A customizable multi-stage fluid treatment assembly for an appliance comprising a base cartridge, a connector, at least one first variable cartridge (96, 98) and a cap that together function to provide a sealed housing, that is configured to engage the filter head assembly of the appliance, eliminating an exterior housing, wherein the base cartridge (94, 156) has a first end (119, 174), a second end (120, 180), and a sidewall extending between the first and second ends enclosing an interior volume, wherein a treatment medium is spaced within the interior volume between the first and second ends, such that the first and second ends of the base cartridge (94, 156) are configured to receive a fluid, bring the fluid into operative contact with the treatment medium, and dispense the fluid from the opposing end of the base cartridge; the connector (92, 154) is coupled with the first end (119, 174) of the base cartridge (94, 156) and has an inlet and an outlet for receiving and dispensing the fluid to and from the appliance and configured to receive and dispense the fluid to and from the base cartridge (94, 156), wherein the connector (92, 154) is configured to receive untreated water through the inlet and dispense treated water through the outlet after it has been treated by at least the treatment medium; the at least first variable cartridge (96, 98, 158, 160) has a first coupler end (121, 123, 184, 194) configured to be removably engaged by hand with the second end (120, 190) of the base cartridge (94, 156), a first receiver end (122, 106, 190, 200), and a first wall extending between the first coupler end (121, 123, 184, 194) and the first receiver end (122, 106, 190, 200) enclosing a first inside volume, wherein a first filter medium is spaced within the first inside volume between the first coupler and first receiver ends (121, 123, 184, 194, 122, 106, 190, 200), such that the first coupler and first receiver ends of the first variable cartridge (96, 98, 158, 160) are configured to receive the fluid, bring the fluid into operative contact with the first filter medium, and dispense the fluid from the opposing end of the first variable cartridge (96, 98, 158, 160); the cap (100, 162) is coupled with the first receiver end of the first variable cartridge (96, 98, 158, 160) and encloses the sealed housing formed within the sidewall of the base cartridge (94, 156) and the first wall of the first variable cartridge wherein a channel (104, 204, 205) is formed within the sealed housing between an inlet or outlet of the connector (92, 154) and the cap (100, 162such that segments of the channel are provided in each of the base cartridge and the first variable cartridge (96, 98), at least the first variable cartridge, and the base cartridge delivering the treated water back to the appliance wherein the cap is configured to direct the fluid to flow between the first variable cartridge (96, 98, 158, 160) and the channel (104, 204, 205), and wherein the channel is configured to allow the fluid to travel to and from the connector (92, 154) through the channel, the first filter medium, and the treatment medium.