mhurhangee/ep-ind-claims huggingface dataset:
A method of brazing a plate heat exchanger comprising a stack of heat exchanger plates (110,115) provided with a pressed pattern of ridges and grooves adapted to form contact points between the plates (110, 115) and provide for interplate flow channels for media to exchange heat, said interplate flow channels being in selective fluid communications with port openings (120, 130, 140, 150) provided near corners of the heat exchanger plates (110, 115), the method including the steps of: i. calculating or measuring the exact position of all contact points between the ridges and grooves of the neighboring plates (110, 115); and characterised by the following steps: ii. applying brazing material close to, but not at, the contact points; iii.stacking heat exchanger plates (110, 115) provided with brazing material to a stack; iv. placing the stack of heat exchanger plates (110, 115) in a furnace; v. heating the stack of heat exchanger plates (110, 115) to a temperature sufficient for melting the brazing material; and vi. allowing the stack of heat exchanger plates (110, 115) to cool down such that the brazing material solidifies and binds the plates (110, 115) together, wherein step ii. includes screen printing the brazing material such that the brazing material is placed such that it is in contact with both the ridges of the pressed pattern of one plate and the grooves of the pressed pattern of a neighboring plate, wherein in step v. a capillary force draws melted brazing material into a crevice formed around the contact point between said ridges and grooves of neighboring plates, such that brazing connections formed at contact points between said ridges and grooves formed by the method are at least partly diffusion bonded. i. calculating or measuring the exact position of all contact points between the ridges and grooves of the neighboring plates (110, 115); ii. applying brazing material close to, but not at, the contact points; iii.stacking heat exchanger plates (110, 115) provided with brazing material to a stack; iv. placing the stack of heat exchanger plates (110, 115) in a furnace; v. heating the stack of heat exchanger plates (110, 115) to a temperature sufficient for melting the brazing material; and vi. allowing the stack of heat exchanger plates (110, 115) to cool down such that the brazing material solidifies and binds the plates (110, 115) together,
A topical sanitizing composition for restoring skin's natural balance of bacteria comprising: 0.02 wt.% to 10.0 wt.% of an active ingredient, wherein said active ingredient is selected from a strain of one or more of Lactobacillus, Clostridia, Saccharomyces, Lactococcus, Pedicoccus, Enterococcus, Escherichia, Alcaligenes, Corynebacterium, Bacillus, and Propionibacterium, and combinations thereof; at least 60 wt. % of one or more C 1-6 alcohols; and water, wherein said topical sanitizing composition reduces pathogen binding on skin by a statistically significant amount, as compared to an otherwise identical composition without the active ingredient. 0.02 wt.% to 10.0 wt.% of an active ingredient, wherein said active ingredient is selected from a strain of one or more of Lactobacillus, Clostridia, Saccharomyces, Lactococcus, Pedicoccus, Enterococcus, Escherichia, Alcaligenes, Corynebacterium, Bacillus, and Propionibacterium, and combinations thereof; at least 60 wt. % of one or more C 1-6 alcohols; and water, wherein said topical sanitizing composition reduces pathogen binding on skin by a statistically significant amount, as compared to an otherwise identical composition without the active ingredient.
A method of wireless communication at a wireless device, the method comprising: establishing a connection with an access node, AN, of a local area network, LAN; transmitting a query to the AN for an indication of one or more protocol end points for an authentication; receiving the indication of the one or more protocol end points for the authentication, wherein the one or more protocol end points comprise a non-access stratum, NAS, layer, a radio resource control, RRC, layer, or a combination thereof; determining to perform the authentication via a particular authentication end point based at least in part on the received indication of the one or more protocol end points; transmitting an authentication indication comprising the determination to perform the authentication; and performing the authentication via the connection established with the AN and the particular authentication end point, based at least in part on the determination to perform the authentication. establishing a connection with an access node, AN, of a local area network, LAN; transmitting a query to the AN for an indication of one or more protocol end points for an authentication; receiving the indication of the one or more protocol end points for the authentication, wherein the one or more protocol end points comprise a non-access stratum, NAS, layer, a radio resource control, RRC, layer, or a combination thereof; determining to perform the authentication via a particular authentication end point based at least in part on the received indication of the one or more protocol end points; transmitting an authentication indication comprising the determination to perform the authentication; and performing the authentication via the connection established with the AN and the particular authentication end point, based at least in part on the determination to perform the authentication.
A computing system comprising: a housing assembly including a chassis having a bottom panel and a canister slidably insertable within the chassis, the canister including a bottom panel having a rear edge, the bottom panel of the canister including first and second angled slots that are open to the rear edge; a central processing unit module mounted within the canister and including a plurality of first input/output (I/O) connectors; a plurality of I/O modules positioned within the chassis, each I/O module including a second I/O connector; a plurality of I/O riser cards each including a printed circuit board having opposing side surfaces, a front edge, a rear edge, a top edge, a bottom edge, a third I/O connector coupled to the bottom edge and a fourth I/O connector coupled to the rear edge, wherein the third I/O connector on each I/O riser card is connected to one of the first I/O connectors and the fourth I/O connector on each I/O riser card is connected to one of the second I/O connectors so that the I/O riser cards are vertically oriented in parallel; and first and second ejector levers (122, 124) pivotally mounted to the bottom panel of the chassis on first and second pins (126, 128) and being positioned between the bottom panels of the chassis and the bottom panel of the canister, wherein, when the first and second levers (122, 124) are actuated, the pins (126, 128) are configured to move in the angled slots and the canister is configured to slide relative to the chassis so as to connect and disconnect the second and fourth I/O connectors (40, 90). a housing assembly including a chassis having a bottom panel and a canister slidably insertable within the chassis, the canister including a bottom panel having a rear edge, the bottom panel of the canister including first and second angled slots that are open to the rear edge; a central processing unit module mounted within the canister and including a plurality of first input/output (I/O) connectors; a plurality of I/O modules positioned within the chassis, each I/O module including a second I/O connector; a plurality of I/O riser cards each including a printed circuit board having opposing side surfaces, a front edge, a rear edge, a top edge, a bottom edge, a third I/O connector coupled to the bottom edge and a fourth I/O connector coupled to the rear edge, wherein the third I/O connector on each I/O riser card is connected to one of the first I/O connectors and the fourth I/O connector on each I/O riser card is connected to one of the second I/O connectors so that the I/O riser cards are vertically oriented in parallel; and first and second ejector levers (122, 124) pivotally mounted to the bottom panel of the chassis on first and second pins (126, 128) and being positioned between the bottom panels of the chassis and the bottom panel of the canister, wherein, when the first and second levers (122, 124) are actuated, the pins (126, 128) are configured to move in the angled slots and the canister is configured to slide relative to the chassis so as to connect and disconnect the second and fourth I/O connectors (40, 90).
A device for monitoring physiological information of and identifying a person comprising: a physiological monitor (103, 211); a biometric identity reader; wherein the biometric identity reader and the physiological monitor (103, 211) are configured such that the biometric identity reader reads biometric information of the person and the physiological monitor (103, 211) reads physiological information of the person at the same time; wherein the physiological monitor is adjacent the biometric identity reader, such that the physical distance between physiological monitor (103, 211) and the biometric identity reader prevents the physiological monitor (103, 211) and the biometric identity reader from being applied separately to more than one person at the same time; such that when the physiological information is authenticated as being of the person, the physiological monitor (103, 211) continues reading physiological information of the person; and if the physiological monitor (103, 211) is detected to have been moved away from the person, the device is configured to require the biometric identity reader to read the biometric information of the person and the physiological monitor (103, 211) to read the physiological information of the person at the same time again to re-authenticate the physiological information as being of the person. a physiological monitor (103, 211); a biometric identity reader; wherein the biometric identity reader and the physiological monitor (103, 211) are configured such that the biometric identity reader reads biometric information of the person and the physiological monitor (103, 211) reads physiological information of the person at the same time; wherein the physiological monitor is adjacent the biometric identity reader, such that the physical distance between physiological monitor (103, 211) and the biometric identity reader prevents the physiological monitor (103, 211) and the biometric identity reader from being applied separately to more than one person at the same time; such that when the physiological information is authenticated as being of the person, the physiological monitor (103, 211) continues reading physiological information of the person; and if the physiological monitor (103, 211) is detected to have been moved away from the person, the device is configured to require the biometric identity reader to read the biometric information of the person and the physiological monitor (103, 211) to read the physiological information of the person at the same time again to re-authenticate the physiological information as being of the person.
A printing assembly comprising a printing original plate and printing blanket (10, 10a) having a printing surface, wherein the printing original plate has an ink arranged on the printing original plate for transferring ink to the printing surface, the printing blanket (10, 10a) comprising: a base member made of an elastic material having a three-dimensional shape with a recessed portion or a hole portion in a center of the base member and the recessed portion or the hole portion is formed to be surrounded by a protruding portion, which is formed on a distal end side of the base member, the protruding portion protrudes downward from a base portion of the base member, a ridge line surrounding the recessed portion or the hole portion and being an apex of the protruding portion, and wherein the printing surface is arranged on a surface of the base member on an outer side from the ridge line for receiving the ink on the printing surface from the printing original plate with no ink arranged on the ridge line, the base member comprising an inner layer and an outer coating layer, the outer coating layer having a sheet shape, being bonded to a surface of the inner layer, and being made of a material having a higher hardness than the inner layer. a base member made of an elastic material having a three-dimensional shape with a recessed portion or a hole portion in a center of the base member and the recessed portion or the hole portion is formed to be surrounded by a protruding portion, which is formed on a distal end side of the base member, the protruding portion protrudes downward from a base portion of the base member, a ridge line surrounding the recessed portion or the hole portion and being an apex of the protruding portion, and wherein the printing surface is arranged on a surface of the base member on an outer side from the ridge line for receiving the ink on the printing surface from the printing original plate with no ink arranged on the ridge line, the base member comprising an inner layer and an outer coating layer, the outer coating layer having a sheet shape, being bonded to a surface of the inner layer, and being made of a material having a higher hardness than the inner layer.
A circuit for sensing aging of an integrated circuit, comprising: a first delay chain having a first input and a first output; a second delay chain having a second input and a second output; and a control module configured to place the first delay chain and the second delay chain in either an aging state in which circuitry in the first and second delay chains ages, an aged oscillating state in which the first delay chain is coupled with the second delay chain to produce a clock output oscillating at a frequency based on delays of aged circuitry, or a non-aged oscillating state in which the first delay chain is coupled with the second delay chain to produce the clock output oscillating at a frequency based on delays of non-aged circuitry; wherein the aging state includes supplying an operating voltage to the first delay chain and the second delay chain; wherein the aging state further includes supplying a first logic value to the first input and a second logic value to the second input, wherein the first logic value is the complement of the second logic value; wherein the aged oscillating state includes selecting between the first output and second output and coupling the selected signal to the first input and the second input and wherein the first output is selected after the first input transitions to the first logic value and the second output is selected after the second input transitions to the second logic value; wherein the non-aged oscillating state includes selecting between the first output and second output and coupling the selected signal to the first input and the second input and wherein the first output is selected after the first input transitions to the second logic value and the second output is selected after the second input transitions to the first logic value. a first delay chain having a first input and a first output; a second delay chain having a second input and a second output; and a control module configured to place the first delay chain and the second delay chain in either an aging state in which circuitry in the first and second delay chains ages, an aged oscillating state in which the first delay chain is coupled with the second delay chain to produce a clock output oscillating at a frequency based on delays of aged circuitry, or a non-aged oscillating state in which the first delay chain is coupled with the second delay chain to produce the clock output oscillating at a frequency based on delays of non-aged circuitry;
Dressing tool comprising a base body and one or more dressing surfaces (2, 3) or one or more dressing edges, wherein the dressing surfaces or edges are covered with hard material elements such as diamonds or CBN elements, characterized in that slots are provided, wherein in each slot a plurality of hard material elements is soldered with solder, wherein the hard material elements stand out from the slot and the depth of the slot is smaller than half of the used average grain size of the hard material elements.
A mouthpiece for cleaning teeth, comprising: a mouthpiece carrier assembly adapted and configured to receive the upper and lower teeth of the user; a system for driving the mouthpiece carrier assembly such that bristles mounted on teeth-facing surfaces of the mouthpiece assembly contact said surfaces and provide a cleaning effect therefor; and a plurality of bristle sections secured to the teeth-facing portions of the mouthpiece carrier assembly, characterized in that different regions of the mouthpiece, covering different dental regions, have different bristles, the individual bristles varying in cross-sectional shape, and cross-sectional surface area and diameter. a mouthpiece carrier assembly adapted and configured to receive the upper and lower teeth of the user; a system for driving the mouthpiece carrier assembly such that bristles mounted on teeth-facing surfaces of the mouthpiece assembly contact said surfaces and provide a cleaning effect therefor; and a plurality of bristle sections secured to the teeth-facing portions of the mouthpiece carrier assembly, characterized in that different regions of the mouthpiece, covering different dental regions, have different bristles, the individual bristles varying in cross-sectional shape, and cross-sectional surface area and diameter.
A method for distributing frames among links in a link aggregation group comprising: aggregating a plurality of physical ports as a link aggregation group; maintaining a plurality of distribution functions, each of the distribution functions capable of mapping frames for a plurality of conversations such that all frames from any given one of the conversations map to a particular one of the ports, wherein the mapping is performed using addressing information associated with the frames; selecting a distribution parameter associated with at least one distribution function providing for distributing conversations among links according to the selected distribution parameter; selecting a first distribution function as a selected distribution function; distributing received frames among the ports in accordance with the selected distribution function; determining to adjust the selected distribution function; after determining to adjust the selected distribution function, disabling distribution of frames among the ports; after disabling distribution of frames among the ports, dropping frames remaining in one or more output queues; selecting a second distribution function as the selected distribution function, wherein the first and second distribution functions use different portions of the addressing information to perform the mapping of frames; and enabling distribution of received frames among the ports in accordance with the second distribution function. aggregating a plurality of physical ports as a link aggregation group; maintaining a plurality of distribution functions, each of the distribution functions capable of mapping frames for a plurality of conversations such that all frames from any given one of the conversations map to a particular one of the ports, wherein the mapping is performed using addressing information associated with the frames; selecting a distribution parameter associated with at least one distribution function providing for distributing conversations among links according to the selected distribution parameter; selecting a first distribution function as a selected distribution function; distributing received frames among the ports in accordance with the selected distribution function; determining to adjust the selected distribution function; after determining to adjust the selected distribution function, disabling distribution of frames among the ports; after disabling distribution of frames among the ports, dropping frames remaining in one or more output queues; selecting a second distribution function as the selected distribution function, wherein the first and second distribution functions use different portions of the addressing information to perform the mapping of frames; and enabling distribution of received frames among the ports in accordance with the second distribution function.
A method of identifying or characterizing suppressive and regulatory human T cells in a patient sample, wherein the method comprises detecting the expression of a sequence selected from SEQ ID NOs:7 or 8.
A process for producing from fish oil processing waste residues a composition comprising cholesterol, comprising the steps: (a) contacting a fish oil processing waste residue with an alkali to obtain a saponified mixture, (b) subjecting the saponified mixture to a distillation step to obtain a first distillate and a first residue, (c) subjecting the first residue to a vacuum distillation step to obtain a second distillate and a second residue, and (d) subjecting the second residue to a vacuum distillation step to obtain a third distillate and a third residue, wherein the third distillate is a composition comprising over 75 % in weight of cholesterol. (a) contacting a fish oil processing waste residue with an alkali to obtain a saponified mixture, (b) subjecting the saponified mixture to a distillation step to obtain a first distillate and a first residue, (c) subjecting the first residue to a vacuum distillation step to obtain a second distillate and a second residue, and (d) subjecting the second residue to a vacuum distillation step to obtain a third distillate and a third residue, wherein the third distillate is a composition comprising over 75 % in weight of cholesterol.
A refractory product comprising CaO component-containing refractory particles and MgO component-containing refractory particles, the refractory product containing, in terms of a chemical composition measured after it has undergone heating in a non-oxidizing atmosphere at 1000°C, one or more oxides selected from the group consisting of B 2 O 3, TiO 2, V 2 O 5, P 2 O 5 and SiO 2 in a total amount of 0.1 to 5.0 mass%, and free carbon in an amount of 2 to 35 mass%, with the remainder including CaO and MgO whose mass ratio (CaO/MgO) is in the range of 0.1 to 1.5, and wherein, in microscopic observation performed at room temperature on a sample of the refractory product which has undergone heating in a non-oxidizing atmosphere at 1000°C, an inorganic film comprised of CaO and the one or more oxides selected from the group consisting of B 2 O 3, TiO 2, V 2 O 5, P 2 O 5 and SiO 2 is formed on at least each CaO surface of the CaO component-containing refractory particles, with a thickness of 0.1 to 25 μm.