mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor of a turbine extending around a longitudinal axis (X-X'), comprising at least one blading bearing at its periphery at least one blade , each blade comprising an airfoil provided at its radially outer end with a heel , this heel comprising a platform equipped with an upstream lip and a downstream lip which extend radially outward from this platform , the platform having a front lateral edge and a back lateral edge with respect to the normal direction of rotation of the rotor about the longitudinal axis (X-X'), and a suction face portion which extends from said front lateral edge to the suction face of the airfoil , characterized in that the upstream lip and the downstream lip each comprise sawtooth-shaped cut-outs such as to form a front tooth and a back tooth with respect to the normal direction of rotation of the rotor about the longitudinal axis (X-X'), in that the front tooth and the back tooth of each lip have a triangular shape or a truncated rectangle shape, in that the front tooth and the back tooth of each lip are contiguous, in that the front teeth of the lips have a front edge perpendicular to the platform and a radially outer edge which is straight and inclined backward from the apex of the front edge in the direction of the platform and in that the back teeth of the lips have a cutting edge perpendicular to the platform and a radially outer edge which is straight and inclined backward from the apex of the cutting edge in the direction of the platform and in that the front tooth of each lip is disposed on the suction face portion of the platform .
A delivery catheter for delivery of a valve stent comprising a distal end and a proximal end, said distal end including a stent attachment region adapted to receive a stent ; said proximal end comprising a handle portion ; and at least one sheath which is configured to circumferentially cover at least partially said stent such as to retain said stent in a collapsed configuration, said sheath being coupleable at its proximal end to actuation means located on said handle portion such as to be moved along said stent, wherein said catheter further comprises tactile feedback means to indicate when the distal end of the sheath has reached a defined position on the stent during proximal and/or distal movement of said sheath along said stent wherein the actuation means comprises a manual rotary control ; characterized in that the manual rotary control is associated with a helical thread that causes linear translation of the rotary control relative to the handle as the rotary control is turned, the handle further comprising indicia positioned so as to be progressively exposed or covered by the rotary control according to the linear position of the rotary control, the indicia indicating an extent of displacement of the sheath at the proximal portion and wherein the rotary control is configured such that the linear translation of the rotary control is the same linear translation as the sheath. said catheter further comprises tactile feedback means to indicate when the distal end of the sheath has reached a defined position on the stent during proximal and/or distal movement of said sheath along said stent wherein the actuation means comprises a manual rotary control ; characterized in that the manual rotary control is associated with a helical thread that causes linear translation of the rotary control relative to the handle as the rotary control is turned, the handle further comprising indicia positioned so as to be progressively exposed or covered by the rotary control according to the linear position of the rotary control, the indicia indicating an extent of displacement of the sheath at the proximal portion and wherein the rotary control is configured such that the linear translation of the rotary control is the same linear translation as the sheath.
A method performed by a network node of a wireless communication network for scheduling a wireless device in uplink , wherein an uplink signal structure is configured to be used by the wireless device and the network node, the uplink signal structure defining transmission subframes divided into symbol periods, wherein the network node applies a short scheduling interval which is shorter in time than a subframe and comprises at least one symbol period, the method comprising: transmitting a control information message to the wireless device for a short scheduling interval, the control information message comprising uplink scheduling information assigned to the wireless device, the uplink scheduling information indicating a length of the short scheduling interval, and a position and a length for a reference signal in the uplink short scheduling interval.
A link monitoring method performed by a terminal, comprising according to whether a monitoring object is present in a first period, determining a link monitoring behavior , wherein the behavior comprises at least one of the following: reporting link quality information, not reporting link quality information, evaluating link quality or not evaluating link quality, characterized in that the monitoring object comprises a third monitoring object, the first period is an indication period corresponding to the third monitoring object, an evaluation period comprises K indication periods, and K is an integer greater than or equal to 1; and the method further comprises: in a case that the third monitoring object is not present in an indication period in the evaluation period, prolonging the evaluation period by one or a plurality of indication periods, wherein the prolonged part is located before the starting indication period of the evaluation period. reporting link quality information, not reporting link quality information, evaluating link quality or not evaluating link quality, characterized in that the monitoring object comprises a third monitoring object, the first period is an indication period corresponding to the third monitoring object, an evaluation period comprises K indication periods, and K is an integer greater than or equal to 1; and the method further comprises: in a case that the third monitoring object is not present in an indication period in the evaluation period, prolonging the evaluation period by one or a plurality of indication periods, wherein the prolonged part is located before the starting indication period of the evaluation period.
Emergency braking device for a hydraulic braking system, with a braking force booster or a brake pedal with a translation rod to a main brake cylinder, comprising a) a hydraulic cylinder , with at least one piston , which can be moved axially on the translation rod , which divides the internal volume of the hydraulic cylinder into at least one working chamber and at least one system chamber with an air bleeding borehole, b) a pressure spring , taking effect onto the at least one piston in the direction of the working chamber axially to the translation rod , c) an inlet opening opening into the at least one working chamber , with a connection to a pressure source, d) at least one contact driver element , which can be moved axially to the translation rod , in the system chamber for the at least one piston, e) a self-inhibiting movement actuator for positioning the at least one contact driver element in the at least one system chamber , wherein f) the translation rod comprises at least one shoulder , with a change in cross-section between the at least one piston and the main brake cylinder, g) the shoulder is an axial stop element for the at least one piston , but not for the at least one contact drive element on the translation rod , h) the hydraulic cylinder is rigidly connected to the braking force booster or the brake pedal and the main brake cylinder, and i) the translation rod can be moved axially in the hydraulic cylinder , brake force booster, or brake pedal and main braking cylinder. a) a hydraulic cylinder , with at least one piston , which can be moved axially on the translation rod , which divides the internal volume of the hydraulic cylinder into at least one working chamber and at least one system chamber with an air bleeding borehole, b) a pressure spring , taking effect onto the at least one piston in the direction of the working chamber axially to the translation rod , c) an inlet opening opening into the at least one working chamber , with a connection to a pressure source, d) at least one contact driver element , which can be moved axially to the translation rod , in the system chamber for the at least one piston, e) a self-inhibiting movement actuator for positioning the at least one contact driver element in the at least one system chamber , wherein f) the translation rod comprises at least one shoulder , with a change in cross-section between the at least one piston and the main brake cylinder, g) the shoulder is an axial stop element for the at least one piston , but not for the at least one contact drive element on the translation rod , h) the hydraulic cylinder is rigidly connected to the braking force booster or the brake pedal and the main brake cylinder, and i) the translation rod can be moved axially in the hydraulic cylinder , brake force booster, or brake pedal and main braking cylinder.
A method comprising: determining whether a base station is to operate in a first, second or third mode of operation; wherein said first mode of operation comprises a first level of activity, said second mode of operation comprises a second level of activity that is lower than said first level of activity, and said third mode of operation comprises a third level of activity that is lower than said second level of activity; applying a first reference signal transmission regime from the base station to a user equipment in which reference signals are sent less often than when operating at the first level of activity, with no further data transmission, when in said second mode of operation; and applying a second reference signal transmission regime in which no data nor reference signals are sent from the base station, when in said third mode of operation. determining whether a base station is to operate in a first, second or third mode of operation; wherein said first mode of operation comprises a first level of activity, said second mode of operation comprises a second level of activity that is lower than said first level of activity, and said third mode of operation comprises a third level of activity that is lower than said second level of activity; applying a first reference signal transmission regime from the base station to a user equipment in which reference signals are sent less often than when operating at the first level of activity, with no further data transmission, when in said second mode of operation; and applying a second reference signal transmission regime in which no data nor reference signals are sent from the base station, when in said third mode of operation.
Method for producing an LED module, wherein the method comprises: - fastening conductor surfaces with a self-adhesive layer on a carrier element, wherein the fastening of the conductor surfaces is carried out by an SMD placement machine and the fastening of the conductor surfaces comprises applying the self-adhesive layer to the conductor surfaces and then fastening the conductor surface with the self-adhesive layer to the carrier element, and - fastening an LED on the conductor surfaces. - fastening conductor surfaces with a self-adhesive layer on a carrier element, wherein the fastening of the conductor surfaces is carried out by an SMD placement machine and the fastening of the conductor surfaces comprises applying the self-adhesive layer to the conductor surfaces and then fastening the conductor surface with the self-adhesive layer to the carrier element, and - fastening an LED on the conductor surfaces.
Method for producing a component that consists of at least two individual components (2 and 3, 6 and 7) connected to one another, wherein the one individual component is a sheet-metal component and is produced by press-hardeninin the course of the non-cutting forming process g, and the respective other individual component is produced by a conventional production process without press-hardening, characterized in that the component is produced as a wheel-controlling chassis structure component.
Security lock for a safe, comprising a lock housing and a lock bolt guided longitudinally displaceably in the lock housing , the lock bolt interacting with a first closing mechanism and a second closing mechanism , the first closing mechanism being a key-operated closing mechanism and the second closing mechanism being an electromotively driven closing mechanism, and comprising a locking mechanism which, in the locking position, blocks a transfer of the lock bolt into an open position displaced into the lock housing , characterized in that the locking mechanism has a locking pin on the lock housing side and two locking levers which interact therewith and are each arranged pivotably on the lock bolt , the locking levers being movement-coupled and one locking lever interacting with the first locking mechanism and the other locking lever interacting with the second locking mechanism .
A method performed by a wireless device operating in a wireless communications network , the method comprising: sending a message to a network node operating in the wireless communications network , the message being a first scheduled message to be sent to the network node in a contention based random access procedure, the message comprising , a one byte header prepended to a payload, the header including a first indicator , the first indicator indicating that the message is of a first type having a fixed size Service Data Unit, SDU as the payload and the header lacking a second indicator of a length of the payload.
Use, as an excipient in a cosmetic formulation, of the product obtained by reaction of at least one wax with at least one polyol in the presence of at least one lipase selected from the group constituted by: Candida antarctica lipase A; Candida antarctica lipase B; Candida rugosa; Thermomyces lanuginosus; Rhizomucor miehei; Pseudomonas sp.; and Carica papaya, the wax being a natural wax or a synthetic wax, the natural wax being of animal, vegetable or mineral origin, the synthetic wax being a mixture of esters of fatty acids and of fatty alcohols obtained by esterification.
A Nd-doped or Yb-doped or Er-doped phosphate glass composition comprising (based on mol %): P 2 O 5 40.00 - 70.00 B 2 O 3 0.00 - 20.00 SiO 2 0.00 - 15.00 Al 2 O 3 2.00 - 15.00 Nd 2 O 3 0.00 - 5.00 Yb 2 O 3 0.00 - solubility limit Er 2 O 3 0.00 - 5.00 CeO 2 (or an equivalent amount of Ce 2 O 3 ) 0.25 - 30.00 La 2 O 3 0.00 MO 0.00 M' 2 O 0.00 - 20.00 wherein MO is the sum of MgO, CaO, SrO, BaO, and ZnO, M' 2 O is the sum of Li 2 O, Na 2 O, K 2 O, and Cs 2 O, the sum of P 2 O 5 , B 2 O 3 , SiO 2 , and Al 2 O 3 is at least 46 mol%, all or a portion of CeO 2 can be replaced by an equivalent amount of Ce 2 O 3 , in which an equivalent amount of Ce 2 O 3 means an amount having the same number of moles of Ce as an amount of CeO 2 , the sum of La 2 O 3 , CeO 2 , Ce 2 O 3 , Nd 2 O 3 , Yb 2 O 3 , and Er 2 O 3 is not more than 35.00 mol%, solubility limit refers to the concentration which is the limit of solubility of Yb 2 O 3 in the glass composition, and the glass contains at least 0.25 mol% Nd 2 O 3 and/or at least 0.50 mol% Yb 2 O 3 and/or at least 0.05 mol% Er 2 O 3 . MO is the sum of MgO, CaO, SrO, BaO, and ZnO, M' 2 O is the sum of Li 2 O, Na 2 O, K 2 O, and Cs 2 O, the sum of P 2 O 5 , B 2 O 3 , SiO 2 , and Al 2 O 3 is at least 46 mol%, all or a portion of CeO 2 can be replaced by an equivalent amount of Ce 2 O 3 , in which an equivalent amount of Ce 2 O 3 means an amount having the same number of moles of Ce as an amount of CeO 2 , the sum of La 2 O 3 , CeO 2 , Ce 2 O 3 , Nd 2 O 3 , Yb 2 O 3 , and Er 2 O 3 is not more than 35.00 mol%, solubility limit refers to the concentration which is the limit of solubility of Yb 2 O 3 in the glass composition, and the glass contains at least 0.25 mol% Nd 2 O 3 and/or at least 0.50 mol% Yb 2 O 3 and/or at least 0.05 mol% Er 2 O 3 .
A gas turbine engine comprising: a shaft ; a bearing apparatus ; and a controller , the shaft being mounted by the bearing apparatus , the bearing apparatus comprising: an inner race ; an outer race ; a roller element positioned between the inner race and the outer race ; a first sensor to sense displacement of one of: the inner race , and the roller element , and to provide a first signal for the sensed displacement to enable a load on the bearing apparatus to be determined; the controller being configured to receive the first signal and to determine the load on the bearing apparatus , characterized in that the controller is configured to receive a signal for rotational speed of the shaft , and to determine the load on the bearing apparatus using the rotational speed and the sensed displacement of the inner race or the roller element . an inner race ; an outer race ; a roller element positioned between the inner race and the outer race ; a first sensor to sense displacement of one of: the inner race , and the roller element , and to provide a first signal for the sensed displacement to enable a load on the bearing apparatus to be determined; the controller being configured to receive the first signal and to determine the load on the bearing apparatus , characterized in that the controller is configured to receive a signal for rotational speed of the shaft , and to determine the load on the bearing apparatus using the rotational speed and the sensed displacement of the inner race or the roller element .
A microfluidic cartridge comprising: a plurality of sample lanes (300a-1), each lane comprising a microfluidic network having: an inlet ; an amplification chamber in which polynucleotides in a liquidic sample are amplified; a first amplification valve upstream of the amplification chamber and a first amplification gate upstream of the amplification chamber ; a second amplification valve downstream of the amplification chamber and a second amplification gate downstream of the amplification chamber ; a first channel leading from the inlet, via the first amplification valve and first amplification gate, to the amplification chamber; a plurality of detection chambers (372a-f) for receiving the amplified polynucleotides for detection; and a first detection valve upstream of the plurality of detection chambers (372a-f) and a second detection valve downstream of the plurality of detection chambers (372a-f), a second channel leading from the amplification chamber, via the second amplification gate and first detection valve, to the plurality of detection chambers. an inlet ; an amplification chamber in which polynucleotides in a liquidic sample are amplified; a first amplification valve upstream of the amplification chamber and a first amplification gate upstream of the amplification chamber ; a second amplification valve downstream of the amplification chamber and a second amplification gate downstream of the amplification chamber ; a first channel leading from the inlet, via the first amplification valve and first amplification gate, to the amplification chamber; a plurality of detection chambers (372a-f) for receiving the amplified polynucleotides for detection; and a first detection valve upstream of the plurality of detection chambers (372a-f) and a second detection valve downstream of the plurality of detection chambers (372a-f), a second channel leading from the amplification chamber, via the second amplification gate and first detection valve, to the plurality of detection chambers.
Method for producing bacterially synthesized cellulose (BC) non-woven, the method comprising the steps of a) Synthesizing BC by incubating a bacterial culture in a culture vessel, wherein the bacterial culture comprises liquid culture medium and BC-synthesizing bacteria, b) Optionally adding fresh or recycled culture medium and/or removing consumed culture medium during the incubation, c) Removing produced BC non-woven having an average thickness of at least 0.5 mm from the culture vessel, wherein at least during step a) the gaseous atmosphere above the bacterial culture is kept at a temperature that is at most 10 K below the highest temperature of the culture medium in the culture vessel within a distance from the interface of BC and gaseous atmosphere of from 0 to 2 cm measured perpendicular to the interface and wherein at least during step a) the gaseous atmosphere above the bacterial culture is kept at a relative humidity of at least 70% within a distance from the interface of BC and gaseous atmosphere of from 0 to 2 cm measured perpendicular to the interface. a) Synthesizing BC by incubating a bacterial culture in a culture vessel, wherein the bacterial culture comprises liquid culture medium and BC-synthesizing bacteria, b) Optionally adding fresh or recycled culture medium and/or removing consumed culture medium during the incubation, c) Removing produced BC non-woven having an average thickness of at least 0.5 mm from the culture vessel,
A steam turbine comprising a turbine main body configured to be supplied with steam from a steam supply unit and a steam valve for controlling an amount of steam to be supplied from the steam supply unit to the turbine main body , wherein the turbine main body comprises: a first connection unit ; and a plurality of guide rods extending from the first connection unit in a first direction, wherein the guide rods are fixedly coupled to an end surface of the first connection unit ; and wherein the steam valve comprises: a second connection unit configured to be coupled to the first connection unit ; and a flange disposed around the second connection unit and configured to receive the guide rods through a plurality of first through-holes respectively formed in the flange ; wherein the guide rods are configured to guide the second connection unit when the second connection unit is moved towards the first connection unit for being coupled to the first connection unit . wherein the turbine main body comprises: a first connection unit ; and a plurality of guide rods extending from the first connection unit in a first direction, wherein the guide rods are fixedly coupled to an end surface of the first connection unit ; and a first connection unit ; and a plurality of guide rods extending from the first connection unit in a first direction, wherein the guide rods are fixedly coupled to an end surface of the first connection unit ; and wherein the steam valve comprises: a second connection unit configured to be coupled to the first connection unit ; and a flange disposed around the second connection unit and configured to receive the guide rods through a plurality of first through-holes respectively formed in the flange ; a second connection unit configured to be coupled to the first connection unit ; and a flange disposed around the second connection unit and configured to receive the guide rods through a plurality of first through-holes respectively formed in the flange ; wherein the guide rods are configured to guide the second connection unit when the second connection unit is moved towards the first connection unit for being coupled to the first connection unit .
Composition comprising a tri-block copolymer according to formula 1 B-A-B wherein A stands for a linear poly-(ethylene glycol) block and wherein B stands for a poly(lactide-co-ε-caprolactone) block, wherein the hydroxyl end-groups of the tri-block copolymer are at least partially acylated with an acyl group; a water soluble pharmaceutically active ingredient and a solvent, wherein the block ratio of the tri-block copolymer, which ratio is defined as the ratio between the sum of the number average molecular weight of the B-blocks and the number average molecular weight of the A-block ranges from 1.4 to 2.6, wherein the number average molecular weight (Mn) of the linear poly-(ethylene glycol) block is at least 1250Da and wherein the acyl group is an acetyl group, a propionyl group, a butyl group , and wherein the active ingredient has a solubility of at least 20μg/ml in water measured at 20°C and at 1 bar pressure.