mhurhangee/ep-ind-claims huggingface dataset:
A method of sealing a container and a lid by melt adhesion by laser, wherein either said container or said lid comprises a thermoplastic resin that permits the laser beam to transmit through and the other one comprises a resin composition of the thermoplastic resin containing a heat-generating substance that generates heat upon absorbing the laser beam, characterised in that: said laser beam is capable of applying a rectangular beam having a uniform intensity distribution, the upper-limit of temperature that is elevated by the application of laser beam lies in a range of not lower than a melting point of said thermoplastic resin but lower than a thermal decomposition start temperature thereof in the melt adhesion interface between said container and said lid, and the temperature reaches said upper-limit in a heating time t (ms) represented by the following formula, t ms = L / S wherein L is the length (mm) of the rectangular beam in the scanning direction, and S is the rate of laser scanning (mm/ms) of not higher than 1.65 mm/ms. said laser beam is capable of applying a rectangular beam having a uniform intensity distribution, the upper-limit of temperature that is elevated by the application of laser beam lies in a range of not lower than a melting point of said thermoplastic resin but lower than a thermal decomposition start temperature thereof in the melt adhesion interface between said container and said lid, and the temperature reaches said upper-limit in a heating time t (ms) represented by the following formula, t ms = L / S wherein L is the length (mm) of the rectangular beam in the scanning direction, and S is the rate of laser scanning (mm/ms) of not higher than 1.65 mm/ms.
A dialysis machine comprising a temperature measuring device (30, 34) for measuring a temperature in a flowing or non-flowing fluid medium, the temperature measuring device having at least one temperature sensor and a sensor housing for housing the temperature sensor, the sensor housing having at least one sensor seat (32, 37) formed in a heat-conducting body (31, 35) and closed toward a fluid contact surface (27, 36) of the heat-conducting body, the temperature sensor being accommodated in said sensor seat in such a manner that it is in heat-conducting contact with the fluid contact surface, characterized in that the heat-conducting body is a homogenous body made of elec-trographite, polymer-bonded graphite, metal-impregnated graphite, mesophase graphite, metal graphite, graphite/ceramic composite material, pyrocarbon, carbon-fiber-reinforced plastic or carbon-fiber-reinforced carbon in such a manner that a sensor head of the temperature sensor disposed in the sensor seat is nestled in immediate contact to a wall of the sensor seat.
An apparatus configured to be employed in a user equipment, UE (110, 112, 114, 116, 118, 122), comprising: one or more processors configured to execute executable instructions stored in a memory for one or more executable components comprising: a communication component configured to receive a downlink, DL, transmission (400, 500) on an unlicensed band based on a discovery reference signal, DRS (406, 506); and a scheduling component configured to process the DL transmission (400, 500) comprising a DRS transmission window, DTxW (402, 502), associated with the DRS (406, 506), based on a set of predetermined criteria, and identify a location of the DTxW (402, 502) within the DL transmission (400, 500) based on the set of predetermined criteria that comprises one or more information bits of the DRS (406, 506),wherein the one or more information bits comprise an indication of whether a master information block, MIB, is located in the DRS (406, 506) of the DTxW (402, 502) or outside of the DTxW (402, 502); and a communication interface, coupled to the one or more processors, configured to receive or transmit communication transmissions. a communication component configured to receive a downlink, DL, transmission (400, 500) on an unlicensed band based on a discovery reference signal, DRS (406, 506); and a scheduling component configured to process the DL transmission (400, 500) comprising a DRS transmission window, DTxW (402, 502), associated with the DRS (406, 506), based on a set of predetermined criteria, and identify a location of the DTxW (402, 502) within the DL transmission (400, 500) based on the set of predetermined criteria that comprises one or more information bits of the DRS (406, 506),wherein the one or more information bits comprise an indication of whether a master information block, MIB, is located in the DRS (406, 506) of the DTxW (402, 502) or outside of the DTxW (402, 502); and a communication interface, coupled to the one or more processors, configured to receive or transmit communication transmissions.
A detection method for detecting a concavo-convex shape surface defect existing on a steel having a surface roughness Ra in the range of 0.5 to 2 μm comprising applying a magnetic flux to the steel so that a magnetic flux density of the steel to which the magnetic flux is applied is at least 75% and lower than 95% of the magnetic flux density at magnetic saturation; a step of sensing a signal attributed to strain of the concavo-convex shape surface defect having a size in a range of 0.5 to 6 μm, wherein the signal is magnetic flux leaking from the steel to which magnetic flux is applied, and a distance between the steel and a sensing apparatus that senses the signal is in a range of 0.5 to 1.5 mm; and a step of determining a point that corresponds to the signal having an intensity equal to or higher than a threshold value to be a defect.
Method for encrypting a connection between a base station and a handset, comprising the steps of: a) generating a key which is agreed upon between the base station and the handset during a first connection, wherein the key comprises an index which is assigned by the base station during the first connection; and b) using the generated key in a second connection between the base station and the handset, wherein the data to be transmitted between the base station and the handset are identified and encrypted on the basis of the index assigned to the key, and wherein during the second connection a new key is agreed upon by means of which the further connection between the base station and the handset is re-encrypted. a) generating a key which is agreed upon between the base station and the handset during a first connection, wherein the key comprises an index which is assigned by the base station during the first connection; and b) using the generated key in a second connection between the base station and the handset, wherein the data to be transmitted between the base station and the handset are identified and encrypted on the basis of the index assigned to the key, and wherein during the second connection a new key is agreed upon by means of which the further connection between the base station and the handset is re-encrypted.
A variant polypeptide of the beta-amylase according to SEQ ID No. 1 having beta-amylase activity and comprising an amino acid sequence which is at least 80% identical to the sequence according to SEQ ID No. 1, which amino acid sequence comprises amino acid substitutions D25K, L27C, S220L, A364P, N369P, S398P and at least a first further amino acid modification at an amino acid residue position number 502 in the numbering of SEQ ID No. 1.
Pumping system, comprising at least a first pump and a second pump, characterized by each of said pumps (300, 400) being provided with one or more dry gas seals and being switchable between a standby condition and a running condition, each of said pumps (300, 400) comprising at least a pump intake and a pump discharge (330, 430), the pumping system further comprising at least a shared process fluid delivery circuit fluidly connecting the pump discharge (330, 430) of each of said pumps (300, 400) to the dry gas seal of each of said pumps (300, 400).
Process for operating a high temperature fuel cell stack during interrupted duty (so-called "trips"), the process comprising the following steps: a) connecting the fuel cell stack in parallel to a power supply unit at a predefined temperature and/or voltage of the fuel cell stack, b) applying a voltage from the power supply unit of between 700 to 1500 mV per fuel cell across the fuel cell stack irrespective of the electromotive force of the fuel cell stack, and c) disconnecting the load on said fuel cell stack while maintaining the voltage per fuel cell from the power supply unit during said interrupted duty, irrespective of the electromotive force of the fuel cell stack. a) connecting the fuel cell stack in parallel to a power supply unit at a predefined temperature and/or voltage of the fuel cell stack, b) applying a voltage from the power supply unit of between 700 to 1500 mV per fuel cell across the fuel cell stack irrespective of the electromotive force of the fuel cell stack, and c) disconnecting the load on said fuel cell stack while maintaining the voltage per fuel cell from the power supply unit during said interrupted duty, irrespective of the electromotive force of the fuel cell stack.
Epinephrine for use in treating anaphylaxis or asthma, wherein the epinephrine is administered using an inhaler for delivering epinephrine to the pulmonary system of a compromised patient, in a single, breath-activated step, said patient has a peak inspiratory flow rate of less than 20 liters per minute, the inhaler comprises a receptacle containing less than 5 milligrams of a particle mass comprising epinephrine, at least about 70% of the particle mass in the receptacle is delivered to the pulmonary system of the patient in a single, breath-activated step, and the inhaler comprises: a first casing portion; a cylindrical chamber, defined by a wall of circular cross-section, coupled to the first casing portion, the chamber having a proximal end and a distal end, the chamber comprising a ring circumferentially coupled to an inner surface of the chamber; and a second casing portion removably coupled to the first casing portion, the second casing portion comprising an inhalation portion disposed at the proximal end of the chamber when the first and the second casing portions are coupled, the inhalation portion comprising a hemispheric region defining a plurality of apertures configured to emit the mass.
A method comprising: acquiring measurement values from operating an electromagnetic measurement tool in a borehole, the measurement tool having an arrangement of transmitter and receiver antennas (111-N); generating new measurement values for a modified arrangement of the same transmitter and receiver antennas in which the horn effect is reduced in the modified arrangement, the generating by processing the measurement values from operating the measurement tool using a relationship including a tilt angle of a receiver antenna in the arrangement that is different from a tilt angle of the same receiver antenna in the modified arrangement; and using the new measurements to determine an estimate of a true formation resistivity. acquiring measurement values from operating an electromagnetic measurement tool in a borehole, the measurement tool having an arrangement of transmitter and receiver antennas (111-N); generating new measurement values for a modified arrangement of the same transmitter and receiver antennas in which the horn effect is reduced in the modified arrangement, the generating by processing the measurement values from operating the measurement tool using a relationship including a tilt angle of a receiver antenna in the arrangement that is different from a tilt angle of the same receiver antenna in the modified arrangement; and using the new measurements to determine an estimate of a true formation resistivity.
A process of making a granular detergent composition comprising the steps of: a) forming an aqueous detergent slurry; b) spray drying said aqueous detergent slurry to form a plurality of spray-dried detergent particles; c) forming an emulsion comprising a surfactant; and d) adding the emulsion from step c) to at least a portion of said plurality of spray-dried detergent particles, wherein the emulsion comprises a polymer, wherein the polymer is an amphiphilic graft copolymer, wherein the amphiphilic graft copolymer comprises a graft copolymer of polyethylene, polypropylene or polybutylene oxide with vinyl acetate in a weight ratio of from 1:0.2 to 1:10. a) forming an aqueous detergent slurry; b) spray drying said aqueous detergent slurry to form a plurality of spray-dried detergent particles; c) forming an emulsion comprising a surfactant; and d) adding the emulsion from step c) to at least a portion of said plurality of spray-dried detergent particles,
A communication method, comprising: receiving (S201, S301), by a user plane function, UPF, network element, first latency information from a time sensitive network, TSN, wherein the first latency information is carried in a flow service provider broadcast declaration and is used to indicate a first latency of transmitting the flow from a flow service provider in the TSN to the UPF network element; sending (S202, S302), by the UPF network element, the first latency information to a session management function, SMF, network element; determining (S203, S304), by the SMF network element according to a policy and charging control, PCC, rule of the flow, a third latency of transmitting the flow from the UPF network element to a terminal device, UE; determining (S204, S305), by the SMF network element based on the first latency and the third latency, a sum of the first latency and the third latency as a second latency of transmitting the flow from the flow service provider in the TSN to the UE; sending (S205, S307), by the SMF network element, second latency information to the UPF network element; and sending (S206, S308), by the UPF network element, the second latency information to the UE, wherein the second latency information is used to indicate the second latency. receiving (S201, S301), by a user plane function, UPF, network element, first latency information from a time sensitive network, TSN, wherein the first latency information is carried in a flow service provider broadcast declaration and is used to indicate a first latency of transmitting the flow from a flow service provider in the TSN to the UPF network element; sending (S202, S302), by the UPF network element, the first latency information to a session management function, SMF, network element; determining (S203, S304), by the SMF network element according to a policy and charging control, PCC, rule of the flow, a third latency of transmitting the flow from the UPF network element to a terminal device, UE; determining (S204, S305), by the SMF network element based on the first latency and the third latency, a sum of the first latency and the third latency as a second latency of transmitting the flow from the flow service provider in the TSN to the UE; sending (S205, S307), by the SMF network element, second latency information to the UPF network element; and sending (S206, S308), by the UPF network element, the second latency information to the UE, wherein the second latency information is used to indicate the second latency.
A method in a first network node for splitting of a DownLink, DL, part and an UpLink, UL, part of a radio bearer between a first cell and a second cell in a wireless communications network, which radio bearer is associated to DL and UL transmissions between the first network node and a user equipment in the first cell, the method comprising: transmitting (1805, 1904) a handover request, which handover request indicates splitting of the DL part and the UL part of the radio bearer between the first cell and the second cell, and receiving (1806, 1905) a handover request acknowledge of the handover request, which handover request acknowledge indicates admission of the splitting. transmitting (1805, 1904) a handover request, which handover request indicates splitting of the DL part and the UL part of the radio bearer between the first cell and the second cell, and receiving (1806, 1905) a handover request acknowledge of the handover request, which handover request acknowledge indicates admission of the splitting.
An X-ray generating apparatus comprising: a liquid metal source, and an extraction electrode (16; 40) separated from the liquid metal source, the x-ray generating apparatus comprising: a liquid metal beam generator that electrostatically accelerates liquid metal ions or ionized droplets from the liquid metal source to form a liquid metal beam in a first direction, wherein the liquid metal beam generator comprises said extraction electrode (16; 40) separated from the liquid metal source that draws the liquid metal beam in the first direction, and wherein the liquid metal beam passes through an orifice in the extraction electrode (16; 40); and an excitation beam source that outputs an excitation beam that intersects the liquid metal beam and excites the liquid metal therein to produce hard X-rays, wherein the excitation beam is an electron beam. a liquid metal source, and an extraction electrode (16; 40) separated from the liquid metal source, the x-ray generating apparatus comprising: a liquid metal beam generator that electrostatically accelerates liquid metal ions or ionized droplets from the liquid metal source to form a liquid metal beam in a first direction, wherein the liquid metal beam generator comprises said extraction electrode (16; 40) separated from the liquid metal source that draws the liquid metal beam in the first direction, and wherein the liquid metal beam passes through an orifice in the extraction electrode (16; 40); and an excitation beam source that outputs an excitation beam that intersects the liquid metal beam and excites the liquid metal therein to produce hard X-rays, wherein the excitation beam is an electron beam.
Balancing machine including: - a driving device capable of rotating a rotor; - an unbalance detecting device of said rotor placed in rotation by said driving device; - said driving device including - at least one belt able to drive said rotor in rotation; - and at least two transmissions defining sliding surfaces for said belt; - a drive pulley, able to move said belt, wherein said transmissions are interposed between said rotor and said drive pulley on opposite sides with respect to the rotor - and characterised by the fact that said movement device includes an adduction apparatus able to introduce pressurized air between said sliding surface and said belt creating an air bearing between said transmissions and said belt. - a driving device capable of rotating a rotor; - an unbalance detecting device of said rotor placed in rotation by said driving device; - said driving device including - at least one belt able to drive said rotor in rotation; - and at least two transmissions defining sliding surfaces for said belt; - a drive pulley, able to move said belt, wherein said transmissions are interposed between said rotor and said drive pulley on opposite sides with respect to the rotor - at least one belt able to drive said rotor in rotation; - and at least two transmissions defining sliding surfaces for said belt; - a drive pulley, able to move said belt, wherein said transmissions are interposed between said rotor and said drive pulley on opposite sides with respect to the rotor - and characterised by the fact that said movement device includes an adduction apparatus able to introduce pressurized air between said sliding surface and said belt creating an air bearing between said transmissions and said belt.
Device for shaping and / or hardening sheet-metal components, the device having a slide tool (8, 8a, 8b) which can be displaced towards a metal sheet to be shaped, the slide tool (8, 8a, 8b) being arranged on a movable wedge drive part, characterised in that in the slide tool (8, 8a, 8b) bores and / or channels and / or grooves are provided for receiving and passing coolant.
A system for monitoring the electrolyte level within a battery having one or more separators between positive and negative plates in a cell of the battery and the top of the separators being at a higher level than the top of the plates, comprising: a measuring device, suitable to be located in the battery, configured to detect when the electrolyte level in the battery falls below a particular level; and a controller, in electrical communication with the measuring device, configured to (i) receive a signal from the measuring device indicating when the electrolyte level in the battery has fallen below the particular level, (ii) introduce a wait-period after the signal is received, and (iii) enable an indicator to indicate that the battery should be refilled after the wait-period expires, wherein said particular level is above the top of said one or more separators and above a lowest safe level of electrolyte, which coincides to the tops of the plates, wherein the wait-period is intended to coincide with an approximate time it takes the electrolyte level to fall from said particular level above the separators to a level below the separators but above the top of said plates in the cell, and wherein the wait-period may include any period of time, but typically ranges from hours to several days. a measuring device, suitable to be located in the battery, configured to detect when the electrolyte level in the battery falls below a particular level; and a controller, in electrical communication with the measuring device, configured to (i) receive a signal from the measuring device indicating when the electrolyte level in the battery has fallen below the particular level, (ii) introduce a wait-period after the signal is received, and (iii) enable an indicator to indicate that the battery should be refilled after the wait-period expires, wherein said particular level is above the top of said one or more separators and above a lowest safe level of electrolyte, which coincides to the tops of the plates, wherein the wait-period is intended to coincide with an approximate time it takes the electrolyte level to fall from said particular level above the separators to a level below the separators but above the top of said plates in the cell, and wherein the wait-period may include any period of time, but typically ranges from hours to several days.