mhurhangee/ep-ind-claims huggingface dataset:
A rotary pump, preferably a vacuum pump, featuring: a delivery space comprising an inlet on a low-pressure side and an outlet on a high-pressure side of the pump; a rotor which is arranged in the delivery space and delivers a fluid from the inlet into the delivery space to the outlet from the delivery space; at least one housing part (23, 24) which delineates the delivery space at least axially; a sealing element (26, 27); and a drive shaft which is connected in drive terms to the rotor, wherein the rotor comprises: a delivery element support featuring at least one rotor slot; and at least one delivery element which is axially and radially guided in the rotor slot and which sub-divides the delivery space into at least two delivery cells, the sealing element (26, 27) is formed as an axial extension of the delivery element support, which extends axially out of the delivery space into the housing part (23, 24), wherein the sealing element (26, 27) and the housing part (23, 24) form an axial gap (G A) together, the at least one sealing element (26, 27) is connected, secured against shifting and rotating, to the drive shaft and the delivery element support, and the sealing element (26, 27) exhibits an outer diameter which is larger than or equal to an outer diameter of the delivery element support, characterised in that the sealing element (26, 27) forms a radial sealing gap (Gs) with the housing part (23, 24), and the axial gap (G A) is larger than the radial sealing gap (Gs). a delivery space comprising an inlet on a low-pressure side and an outlet on a high-pressure side of the pump; a rotor which is arranged in the delivery space and delivers a fluid from the inlet into the delivery space to the outlet from the delivery space; at least one housing part (23, 24) which delineates the delivery space at least axially; a sealing element (26, 27); and a drive shaft which is connected in drive terms to the rotor, wherein the rotor comprises: a delivery element support featuring at least one rotor slot; and at least one delivery element which is axially and radially guided in the rotor slot and which sub-divides the delivery space into at least two delivery cells, the sealing element (26, 27) is formed as an axial extension of the delivery element support, which extends axially out of the delivery space into the housing part (23, 24), wherein the sealing element (26, 27) and the housing part (23, 24) form an axial gap (G A) together, the at least one sealing element (26, 27) is connected, secured against shifting and rotating, to the drive shaft and the delivery element support, and the sealing element (26, 27) exhibits an outer diameter which is larger than or equal to an outer diameter of the delivery element support, characterised in that the sealing element (26, 27) forms a radial sealing gap (Gs) with the housing part (23, 24), and the axial gap (G A) is larger than the radial sealing gap (Gs).
A method for operating a user equipment, UE, performed by the UE, the method comprising: • receiving a first value being a control format indicator, CFI, of a number of occupied OFDM symbols of a downlink control region of a first cell, by a physical CFI channel, PCFICH; • calculating an index n using the first value, wherein the index n is a starting point of a new pool of acknowledgement or negative acknowledgement, A/N, channels, o wherein the new pool of A/N channels is a pool of A/N channels corresponding to downlink transmissions to the UE from a second cell and the new pool of A/N channels is an additional pool of A/N channels in addition to an original pool of A/N channels, wherein the new pool of A/N channels was previously assigned to data transmission and the original pool of A/N channels corresponds to downlink transmissions to the UE from the first cell; • receiving a second value N PUCCH by a high layer signaling, wherein the high layer signaling is radio resource control signalling, RRC, within LTE standard, and the second value indicates a position of a specific A/N channel within the new pool of A/N channels; • calculating an A/N channel index n PUCCH in the first cell by adding the index n to the second value N PUCCH, wherein the A/N channel index n PUCCH corresponds to a downlink transmission of the second cell and n PUCCH is a physical uplink control channel, PUCCH, channel location. • receiving a first value being a control format indicator, CFI, of a number of occupied OFDM symbols of a downlink control region of a first cell, by a physical CFI channel, PCFICH; • calculating an index n using the first value, wherein the index n is a starting point of a new pool of acknowledgement or negative acknowledgement, A/N, channels, o wherein the new pool of A/N channels is a pool of A/N channels corresponding to downlink transmissions to the UE from a second cell and the new pool of A/N channels is an additional pool of A/N channels in addition to an original pool of A/N channels, wherein the new pool of A/N channels was previously assigned to data transmission and the original pool of A/N channels corresponds to downlink transmissions to the UE from the first cell; • receiving a second value N PUCCH by a high layer signaling, wherein the high layer signaling is radio resource control signalling, RRC, within LTE standard, and the second value indicates a position of a specific A/N channel within the new pool of A/N channels; • calculating an A/N channel index n PUCCH in the first cell by adding the index n to the second value N PUCCH, wherein the A/N channel index n PUCCH corresponds to a downlink transmission of the second cell and n PUCCH is a physical uplink control channel, PUCCH, channel location.
An intravascular device (10, 140) having an inner surface (60, 120) within which a septum (50, 150, 250) is placed, the septum has an outer surface, a proximal end, and a distal end forming a distal surface, the outer surface having one or more vents that each extend from the proximal end to the distal end to thereby allow air or liquid to bypass the septum by passing through the one or more vents, each vent comprising a vent outer surface that is recessed from the outer surface of the septum and a vent distal surface that is recessed from the distal end of the cylindrical body, characterised in that, the vent outer surface being positioned at a first radial distance from a longitudinal axis of the septum when the septum is uncompressed and the vent distal surface extending radially to a second radial distance less than the first radial distance such that the distal end of the vent outer surface is chamfered when the septum is uncompressed, and when the septum is inserted into an intravascular device, the compression of the outer surface of the cylindrical body causes the vent outer surface to be compressed towards the second radial distance such that the distal end of the vent outer surface is not chamfered. the septum has an outer surface, a proximal end, and a distal end forming a distal surface, the outer surface having one or more vents that each extend from the proximal end to the distal end to thereby allow air or liquid to bypass the septum by passing through the one or more vents, each vent comprising a vent outer surface that is recessed from the outer surface of the septum and a vent distal surface that is recessed from the distal end of the cylindrical body, characterised in that, the vent outer surface being positioned at a first radial distance from a longitudinal axis of the septum when the septum is uncompressed and the vent distal surface extending radially to a second radial distance less than the first radial distance such that the distal end of the vent outer surface is chamfered when the septum is uncompressed, and when the septum is inserted into an intravascular device, the compression of the outer surface of the cylindrical body causes the vent outer surface to be compressed towards the second radial distance such that the distal end of the vent outer surface is not chamfered.
A method of bonding die (100a -100c) to a handle wafer, comprising: receiving a plurality of singulated die (100a -100c), each die having a face side, a substrate material back side (108a - 108c), and a thickness, each face side including a planarized oxide layer protecting one or more metallized post structures (112a - 112c) connecting to a device structure formed in the die (100a -100c), wherein different ones of the plurality of die have dissimilar thicknesses; bonding each face side of the plurality of die to a front side of a first handle wafer, such that the metallized post structures (112a - 112c) associated with each of the die (100a -100c) lie in a common plane; thinning each of the substrate material back sides (108a - 108c) of the bonded plurality of die (100a -100c) to a uniform thickness; preparing the respective backsides of the plurality of die (100a -100c) and an exposed front side of the first handle wafer with a protective conformal coating of SiO 2; bonding the back sides of the uniformly thinned plurality of die (100a -100c) to a front side of a second handle wafer; removing the first handle wafer by thinning; and removing the planarized oxide layers from each face side of the plurality of uniformly thinned die (100a -100c) to reveal the one or more metallized post structures (112a - 112c). receiving a plurality of singulated die (100a -100c), each die having a face side, a substrate material back side (108a - 108c), and a thickness, each face side including a planarized oxide layer protecting one or more metallized post structures (112a - 112c) connecting to a device structure formed in the die (100a -100c), wherein different ones of the plurality of die have dissimilar thicknesses; bonding each face side of the plurality of die to a front side of a first handle wafer, such that the metallized post structures (112a - 112c) associated with each of the die (100a -100c) lie in a common plane; thinning each of the substrate material back sides (108a - 108c) of the bonded plurality of die (100a -100c) to a uniform thickness; preparing the respective backsides of the plurality of die (100a -100c) and an exposed front side of the first handle wafer with a protective conformal coating of SiO 2; bonding the back sides of the uniformly thinned plurality of die (100a -100c) to a front side of a second handle wafer; removing the first handle wafer by thinning; and removing the planarized oxide layers from each face side of the plurality of uniformly thinned die (100a -100c) to reveal the one or more metallized post structures (112a - 112c).
A liftable bicycle seatpost comprising: an outer tube; an inner tube movably disposed upwards and downwards in the outer tube, and having a top end thereof located outside the outer tube and a bottom end thereof received in the outer tube, an outer surface of the inner tube having a protrusion; and a bushing disposed between the inner tube and the outer tube, and having an upper sleeve rotatably disposed at a top end of the outer tube and a lower sleeve received in the outer tube and disposed at a bottom end of the upper sleeve, a bottom end of the upper sleeve having an upper baffle ring provided with a first engaging portion at a bottom end thereof, a top end of the lower sleeve having a lower baffle ring provided with a second engaging portion at a top end thereof engaged with the first engaging portion of the upper baffle ring, so that the upper sleeve and the lower sleeve are moved synchronously, characterized by a top edge of the lower baffle ring of the lower sleeve being abutted against a bottom edge of the upper baffle ring of the upper sleeve, a bottom end of the lower sleeve having a limiting portion abutted against the protrusion of the inner tube; wherein an outer surface of the upper baffle ring of the upper sleeve is flushed with an outer surface of the lower baffle ring of the lower sleeve. an outer tube; an inner tube movably disposed upwards and downwards in the outer tube, and having a top end thereof located outside the outer tube and a bottom end thereof received in the outer tube, an outer surface of the inner tube having a protrusion; and a bushing disposed between the inner tube and the outer tube, and having an upper sleeve rotatably disposed at a top end of the outer tube and a lower sleeve received in the outer tube and disposed at a bottom end of the upper sleeve, a bottom end of the upper sleeve having an upper baffle ring provided with a first engaging portion at a bottom end thereof, a top end of the lower sleeve having a lower baffle ring provided with a second engaging portion at a top end thereof engaged with the first engaging portion of the upper baffle ring, so that the upper sleeve and the lower sleeve are moved synchronously, characterized by a top edge of the lower baffle ring of the lower sleeve being abutted against a bottom edge of the upper baffle ring of the upper sleeve, a bottom end of the lower sleeve having a limiting portion abutted against the protrusion of the inner tube; wherein an outer surface of the upper baffle ring of the upper sleeve is flushed with an outer surface of the lower baffle ring of the lower sleeve.
An electrical contact comprising: a substrate of an electrically conductive non-silver material; and an electrically conductive metal-graphene composite coating directly on a surface of the substrate; wherein the graphene content in the coating is within the range of 0.1 to 1 wt%. a substrate of an electrically conductive non-silver material; and an electrically conductive metal-graphene composite coating directly on a surface of the substrate; wherein the graphene content in the coating is within the range of 0.1 to 1 wt%.
A crown plug securement system comprising an outer member of a bore, a securement means to secure a crown plug within the outer member; characterised in that the securement means comprises a clamping arrangement which is activated between a first configuration and a second configuration wherein, in the first configuration, a clamping member is in an unclamped configuration and enables a crown plug to be axially moved within the outer member to an axial position which is aligned with the clamping member of the clamping arrangement and, in the second configuration, the clamping arrangement exerts sufficient radial force on the outer member to distort the outer member inwardly to grip the crown plug and secure the crown plug in the axial position within the bore.
High refractive index monomer according to formula: wherein: R 1 is H or CH 3; X is O or S; R 2 is independently H or linear or branched C 1 -C 6 alkyl; n = 3 to 10; m=1-10; R 3 is linear or branched C 1 - C 3 alkylene; Y is O or S; p=0-5; R 4 is C 6 - C 18 aryl or heteroaryl; q is 2 or 3; o is 0 or 1; when q = 2, then o is 1; when q = 3; then o is 0; and R 5 is independently H or linear or branched C 1 -C 6 alkyl. R 1 is H or CH 3; X is O or S; R 2 is independently H or linear or branched C 1 -C 6 alkyl; n = 3 to 10; m=1-10; R 3 is linear or branched C 1 - C 3 alkylene; Y is O or S; p=0-5; R 4 is C 6 - C 18 aryl or heteroaryl; q is 2 or 3; o is 0 or 1; when q = 2, then o is 1; when q = 3; then o is 0; and R 5 is independently H or linear or branched C 1 -C 6 alkyl.
Laminated structure for E-document, comprising a first support layer defining at least two flaps (5, 6) of the same thickness connected by at least one fold line: - the first flap supporting an antenna and a microcircuit device enabling contactless data exchange, - the second flap supporting an electromagnetic interference element, notably comprising a magnetic material, a conductive material, or a resonator circuit, and being arranged in relation to the microcircuit device so as to be able to oppose at least one of contactless reading and/or writing of the microcircuit device in at least one folded configuration of the structure, a) the structure comprising at least one heat-activated adhesive (20, 21, 22; 26; 33) or pressure-sensitive layer making it possible to receive the microcircuit device and/or the antenna and/or the electromagnetic interference element at least in part in its thickness, and b) the flaps comprising at least an adhesive and/or fibrous and/or polymer layer (15, 16) having different thicknesses for each of the flaps, the first support layer comprising at least one cavity, notably a through cavity, in which the microcircuit device is at least partially housed. - the first flap supporting an antenna and a microcircuit device enabling contactless data exchange, - the second flap supporting an electromagnetic interference element, notably comprising a magnetic material, a conductive material, or a resonator circuit, and being arranged in relation to the microcircuit device so as to be able to oppose at least one of contactless reading and/or writing of the microcircuit device in at least one folded configuration of the structure, a) the structure comprising at least one heat-activated adhesive (20, 21, 22; 26; 33) or pressure-sensitive layer making it possible to receive the microcircuit device and/or the antenna and/or the electromagnetic interference element at least in part in its thickness, and b) the flaps comprising at least an adhesive and/or fibrous and/or polymer layer (15, 16) having different thicknesses for each of the flaps, the first support layer comprising at least one cavity, notably a through cavity, in which the microcircuit device is at least partially housed. a) the structure comprising at least one heat-activated adhesive (20, 21, 22; 26; 33) or pressure-sensitive layer making it possible to receive the microcircuit device and/or the antenna and/or the electromagnetic interference element at least in part in its thickness, and b) the flaps comprising at least an adhesive and/or fibrous and/or polymer layer (15, 16) having different thicknesses for each of the flaps,
Avalanche diode arrangement, comprising: - an avalanche diode that is coupled to a first voltage terminal and to a first node, - an event detector for detecting a trigger event of the avalanche diode and being coupled to the first node, - a quenching circuit that is coupled to the first node, and - a detection circuit coupled to the first node, wherein the detection circuit is configured to provide a detection signal that depends on a value of a node voltage at the first node, said detection circuit comprising one circuit of a group comprising a comparator and a Schmitt-trigger circuit having - a first input coupled to the first node and - a second input to which a reference voltage is provided, wherein the avalanche diode arrangement is configured to control a value of a bias voltage at the first voltage terminal depending on the detection signal. - an avalanche diode that is coupled to a first voltage terminal and to a first node, - an event detector for detecting a trigger event of the avalanche diode and being coupled to the first node, - a quenching circuit that is coupled to the first node, and - a detection circuit coupled to the first node, wherein the detection circuit is configured to provide a detection signal that depends on a value of a node voltage at the first node, said detection circuit comprising one circuit of a group comprising a comparator and a Schmitt-trigger circuit having - a first input coupled to the first node and - a second input to which a reference voltage is provided, wherein the avalanche diode arrangement is configured to control a value of a bias voltage at the first voltage terminal depending on the detection signal.
A refrigerator comprising: a cabinet that defines a storage space and a machine compartment therein, the machine compartment being separated from the storage space; a compressor disposed in the machine compartment; a blow fan disposed in the machine compartment; a condenser disposed in the machine compartment, the condenser being curved, the condenser comprising: a first header disposed at a first end of the condenser, a second header disposed at a second end of the condenser, an input connection portion connected to the first header, and an output connection portion connected to the first header and being spaced apart from the input connection portion; wherein the blow fan is disposed between the compressor and the condenser, and extends parallel to the input connection portion and the output connection portion; wherein the input connection portion extends from the first header toward the second header, and the output connection portion extends from the first header toward the second header. a cabinet that defines a storage space and a machine compartment therein, the machine compartment being separated from the storage space; a compressor disposed in the machine compartment; a blow fan disposed in the machine compartment; a condenser disposed in the machine compartment, the condenser being curved, the condenser comprising: a first header disposed at a first end of the condenser, a second header disposed at a second end of the condenser, an input connection portion connected to the first header, and an output connection portion connected to the first header and being spaced apart from the input connection portion; a first header disposed at a first end of the condenser, a second header disposed at a second end of the condenser, an input connection portion connected to the first header, and an output connection portion connected to the first header and being spaced apart from the input connection portion; wherein the blow fan is disposed between the compressor and the condenser, and extends parallel to the input connection portion and the output connection portion; wherein the input connection portion extends from the first header toward the second header, and the output connection portion extends from the first header toward the second header.
A machine comprising a frother with an outlet channel for milk foam, and supply channels (5, 6, 7) for milk, steam, and air respectively, and provided with a nonreturn valve to prevent a fluid in one of the channels from flowing in an undesirable direction, wherein the machine is further provided with a clean water supply channel that connects to the milk supply channel with a T-junction distant from the frother, wherein the T-junction further connects to a source channel for the milk, characterized in that the clean water supply channel and the milk supply channel are embodied as a tube in tube construction.