mhurhangee/ep-ind-claims huggingface dataset:
An isolated antibody that binds to CD33, wherein the antibody comprises (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:118; (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:119; (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:25; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:5; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:111; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:7.
Ceiling air outlet for air conditioning systems for installation at a distance spacing beneath a ceiling of a room which is to be ventilated with a delivery air chamber comprising at least one delivery air inlet, preferably extended longitudinally, and with at least one side chamber, located laterally from the delivery air chamber and separated from the delivery air chamber by a partition wall, wherein in each partition wall there is provided at least one cut-out aperture, configured in particular as a nozzle, for the inflow of delivery air (arrow 10) from the delivery air chamber into the side chamber concerned, and wherein allocated to each side chamber is at least one heat exchanger, through which room air (arrow 12) is induced due to induction by the delivery air (arrow 10) into the side chamber, and each side chamber comprises at least one outlet opening, wherein on both sides of the delivery air chamber a side chamber is provided in each case, wherein each side chamber is separated by a partition wall from the delivery air chamber, and then, further, each cut-out aperture is configured in such a way that the flow of delivery air (arrow 10) passing through it is at least approximately horizontal, that the ceiling air outlet comprises, on the underside facing towards the room which is to be ventilated, a surface element, and that, arranged in the surface element, are further components, such as lights, fire alarms, or the like, configured such as to be impermeable to air and covering the ceiling air outlet on the underside, and that each outlet opening is aligned flush with its corresponding cut-out aperture(s), such that delivery air (arrow 10) flowing through each cut-out aperture is not, or at least substantially not, deflected in the side chamber pertaining to it, characterised in that the room air is induced from above the surface element, namely in the upper region of the ceiling air outlet, such as, for example, from above the upper edge of the ceiling air outlet.
A gas treatment system, comprising: an acid gas removal system configured to remove an acid gas from an untreated syngas to generate a treated syngas; a hydrogen separation system configured to receive the treated syngas to generate a non-permeate and a permeate; a non-permeate cooler configured to receive the non-permeate from the hydrogen separation system and to cool the non-permeate via heat exchange with a coolant to produce a non-permeate discharge; and an expander configured to receive the non-permeate discharge from the non-permeate cooler and to expand the non-permeate discharge to generate a cooled non-permeate; wherein the AGR system comprises a solvent chiller configured to cool a solvent via heat exchange with the cooled non-permeate; the system characterised in that the AGR system comprises an untreated syngas cooler configured to cool untreated syngas via heat exchange with cooled non-permeate from the solvent chiller. an acid gas removal system configured to remove an acid gas from an untreated syngas to generate a treated syngas; a hydrogen separation system configured to receive the treated syngas to generate a non-permeate and a permeate; a non-permeate cooler configured to receive the non-permeate from the hydrogen separation system and to cool the non-permeate via heat exchange with a coolant to produce a non-permeate discharge; and an expander configured to receive the non-permeate discharge from the non-permeate cooler and to expand the non-permeate discharge to generate a cooled non-permeate;
A method of operating an image scanning apparatus; wherein the image scanning apparatus includes a line scan detector and is configured to image a surface of an object mounted in the image scanning apparatus in a plurality of swathes, wherein each swathe is formed by a group of scan lines, each scan line being acquired using the scan line detector from a respective elongate region of the surface of the object extending in a scan width direction, wherein each group of scan lines is acquired whilst the object is moved relative to the scan line detector in a scan length direction; wherein the method includes: using at least one scan line, acquired from a surface of a first object mounted in the image scanning apparatus using the scan line detector, to obtain at least one measure indicating that the surface of the first object is uneven in the scan width direction relative to an imaging plane of the image scanning apparatus; setting a swathe width value for use in acquiring at least one swathe from a surface of a second object mounted in the image scanning apparatus, wherein the swathe width value is set based on the at least one measure and configured so as to keep the/each swathe acquired from the surface of the second object substantially in focus across its width in the scan width direction; acquiring at least one swathe from the surface of the second object using the scan line detector, wherein the at least one swathe acquired from the surface of the second object has a width in the scan width direction that corresponds to the swathe width value set based on the at least one measure. using at least one scan line, acquired from a surface of a first object mounted in the image scanning apparatus using the scan line detector, to obtain at least one measure indicating that the surface of the first object is uneven in the scan width direction relative to an imaging plane of the image scanning apparatus; setting a swathe width value for use in acquiring at least one swathe from a surface of a second object mounted in the image scanning apparatus, wherein the swathe width value is set based on the at least one measure and configured so as to keep the/each swathe acquired from the surface of the second object substantially in focus across its width in the scan width direction; acquiring at least one swathe from the surface of the second object using the scan line detector, wherein the at least one swathe acquired from the surface of the second object has a width in the scan width direction that corresponds to the swathe width value set based on the at least one measure.
A method of countering the effect of G-forces on a person comprising passing inflation gas to a bladder (41, 49) on a leg of a person by starting the inflation of the bladder (41, 49) to an operating pressure simultaneously from a point adjacent an ankle of the leg and at least one further point spaced from said point towards an abdomen of the person, said bladder (41, 49) when inflated to said operating pressure constricting the blood vessels of the leg.
A system for controlling distribution of electrical power through a network, said system comprising a plurality of nodes (108A-G, 200), each node including: a switch; and a node controller configured to control the switch of said node, the node controller including first resources configured to monitor the electrical power system for abnormalities and to respond to predetermined, detected abnormalities and second resources configured to communicate between and exchange information with node controllers in the plurality of nodes (108A-G, 200) and to determine whether to operate respective switches to perform reconfiguration of the electrical power system, wherein said plurality of nodes (108A-G, 200) are organised into a plurality of teams, each team associated with a field defining a portion of the distribution system bounded by nodes (108A-G, 200), each member of each team comprising one of said plurality of nodes (108A-G, 200), at least one of said plurality of nodes (108A-G, 200) being a common member of at least two teams, each of said plurality of teams comprising an agent for controlling and coordinating said team members, said agent being capable of communicating between teams to exchange information with said nodes (108A-G, 200) to determine a negotiated plan between at least two of said plurality of teams, and controlling operation of said plurality of node controllers to perform reconfiguration of said plurality of nodes (108A-G, 200) of the distribution system in accordance with the negotiated plan upon detection of one of said predetermined abnormalities, the communicated information including: data on adjacent team members and from other teams representing system information; task identifiers and functional representations on how to respond to particular system conditions as sensed and in accordance with the negotiated plan. a switch; and a node controller configured to control the switch of said node, the node controller including first resources configured to monitor the electrical power system for abnormalities and to respond to predetermined, detected abnormalities and second resources configured to communicate between and exchange information with node controllers in the plurality of nodes (108A-G, 200) and to determine whether to operate respective switches to perform reconfiguration of the electrical power system,
A semiconductor device comprising: a semiconductor die having a first major electrode on a first major surface thereof, a second major electrode on a second major surface thereof opposing said first major surface and a control electrode disposed on said second major surface and electrically isolated from said second major electrode; and a metal can, said metal can including: a web portion electrically connected to said first major electrode, said web portion including a recess disposed on a top surface of said web portion forming a frame around said semiconductor die and protruding toward said semiconductor die and beyond said first major surface, a bottom surface of said web portion opposing said top surface and contacting said first major surface, a peripheral wall extending from edges of said web portion, said peripheral wall being spaced from said semiconductor die such that an air gap exists between said semiconductor die and said peripheral wall. a semiconductor die having a first major electrode on a first major surface thereof, a second major electrode on a second major surface thereof opposing said first major surface and a control electrode disposed on said second major surface and electrically isolated from said second major electrode; and a metal can, said metal can including: a web portion electrically connected to said first major electrode, said web portion including a recess disposed on a top surface of said web portion forming a frame around said semiconductor die and protruding toward said semiconductor die and beyond said first major surface, a bottom surface of said web portion opposing said top surface and contacting said first major surface, a peripheral wall extending from edges of said web portion, said peripheral wall being spaced from said semiconductor die such that an air gap exists between said semiconductor die and said peripheral wall. a web portion electrically connected to said first major electrode, said web portion including a recess disposed on a top surface of said web portion forming a frame around said semiconductor die and protruding toward said semiconductor die and beyond said first major surface, a bottom surface of said web portion opposing said top surface and contacting said first major surface, a peripheral wall extending from edges of said web portion, said peripheral wall being spaced from said semiconductor die such that an air gap exists between said semiconductor die and said peripheral wall.
Installation for discharging fumes into the atmosphere, comprising: - a pipe for discharging fumes towards the atmosphere, which includes a portion having a substantially circular transverse profile and being provided with traversing openings which are distributed all around said portion and the total sum of the sections of passage of which is between 0.05 and 0.4 times the section of passage of said portion, and - a device for suppression, partial or even total, of a wreath of fumes, the device comprising a casing for distributing a hot gas which is adapted to surround in its entirety said portion of the pipe so that hot gas entering the internal volume of the casing is channelled by the casing in order: - to turn around said portion of the pipe by circulating within the casing according to a turning movement relative to the fumes circulating in the pipe, and - to pass inside the pipe via the openings of said portion of the pipe so that the hot gas which thus passes to the inside of the pipe via the openings retains a portion of said turning movement and forms a peripheral gaseous stream, which covers the inner face of the pipe downstream of said portion of the pipe and inside which the fumes form a central gaseous stream. - a pipe for discharging fumes towards the atmosphere, which includes a portion having a substantially circular transverse profile and being provided with traversing openings which are distributed all around said portion and the total sum of the sections of passage of which is between 0.05 and 0.4 times the section of passage of said portion, and - a device for suppression, partial or even total, of a wreath of fumes, the device comprising a casing for distributing a hot gas which is adapted to surround in its entirety said portion of the pipe so that hot gas entering the internal volume of the casing is channelled by the casing in order: - to turn around said portion of the pipe by circulating within the casing according to a turning movement relative to the fumes circulating in the pipe, and - to pass inside the pipe via the openings of said portion of the pipe so that the hot gas which thus passes to the inside of the pipe via the openings retains a portion of said turning movement and forms a peripheral gaseous stream, which covers the inner face of the pipe downstream of said portion of the pipe and inside which the fumes form a central gaseous stream. - to turn around said portion of the pipe by circulating within the casing according to a turning movement relative to the fumes circulating in the pipe, and - to pass inside the pipe via the openings of said portion of the pipe so that the hot gas which thus passes to the inside of the pipe via the openings retains a portion of said turning movement and forms a peripheral gaseous stream, which covers the inner face of the pipe downstream of said portion of the pipe and inside which the fumes form a central gaseous stream.
An agent for use in the treatment of meibomian gland dysfunction accompanying lipid overaccumulation in duct, which comprises an activated vitamin D3 or a derivative thereof as an active ingredient, wherein the activated vitamin D3 or a derivative thereof is at least one kind selected from Tacalcitol, Calcipotriol, Alfacalcidol, Falecalcitriol and Maxacalcitol; and the agent is an external preparation.
A process of preparing a pharmaceutical preparation of glatiramer acetate and mannitol in a suitable container comprising the steps of: (i) obtaining an aqueous pharmaceutical solution of glatiramer acetate and mannitol; (ii) filtering the aqueous pharmaceutical solution at a temperature from above 0°C up to 17.5°C to produce a filtrate; and (iii) filling the suitable container with the filtrate obtained after performing step (ii), so as to thereby prepare the pharmaceutical preparation of glatiramer acetate and mannitol in the suitable container. (i) obtaining an aqueous pharmaceutical solution of glatiramer acetate and mannitol; (ii) filtering the aqueous pharmaceutical solution at a temperature from above 0°C up to 17.5°C to produce a filtrate; and (iii) filling the suitable container with the filtrate obtained after performing step (ii), so as to thereby prepare the pharmaceutical preparation of glatiramer acetate and mannitol in the suitable container.
A process to produce a fluorided solid oxide, the process comprising: (a) calcining a solid oxide at a peak calcining temperature to produce a calcined solid oxide; and (b) contacting the calcined solid oxide at a peak fluoriding temperature in a range of from 350°C to 650°C with a vapor comprising a fluorine-containing compound to produce the fluorided solid oxide; wherein the peak fluoriding temperature is from 100°C to 300°C less than the peak calcining temperature and wherein the fluorine-containing compound comprises (i) a fluoroalkane or fluoroalkene of the formula CxHyFz, wherein x is an integer from 1 to 8, y and z are integers such that y+z=2x+n, and wherein n is 0, 1, or 2; (ii)benzene, toluene or xylene, wherein at least one hydrogen atom is replaced with a F atom; or (iii) an alkyl or alkenyl ether wherein at least one alkyl or alkenyl group has a hydrogen atom replaced with a F atom; or any combination thereof. (a) calcining a solid oxide at a peak calcining temperature to produce a calcined solid oxide; and (b) contacting the calcined solid oxide at a peak fluoriding temperature in a range of from 350°C to 650°C with a vapor comprising a fluorine-containing compound to produce the fluorided solid oxide;
An apparatus (100; 200; 900; 1000; 1100; 1200; 1300; 1400; 1500; 1600; 1700; 1800; 1900; 2000; 2100), comprising: an implantable medical device (102; 202) comprising: a housing (105; 205; 805; 1005; 1105; 1205; 1305; 1405; 1505; 1605; 1705; 1805; 1905; 2005; 2105); an implantable telemetry circuit (106; 116; 206) carried within the housing; a dielectric compartment (107; 207; 307; 807; 907; 1007; 1107; 1207; 1307; 1407; 1507; 1607; 1707; 1807; 1907; 2007; 2107; 2307; 2407; 2507), mechanically coupled to the housing, the dielectric compartment including at least first and second face portions (308A; 308B); an implantable telemetry antenna (110; 210; 310; 312; 510; 710; 1010; 1210; 1310; 1410; 1510; 1610; 1710; 1810; 1910B; 2010B; 2110B; 2410), located at least partially within the dielectric compartment; wherein the implantable telemetry circuit is electrically coupled to the implantable telemetry antenna and configured to wirelessly transfer information electromagnetically using the implantable telemetry antenna; wherein the implantable telemetry antenna comprises a spiral conductor (209B; 410AB; 702; 810; 1910A; 2010A; 2110A; 2310; 2410; 2510); wherein the spiral conductor comprises a bent planar spiral pattern including concentric turns having first and second planar portions extending along and conforming to contours of the at least first and second face portions of the dielectric compartment; and wherein the first face portion is in a different plane than the second face portion, and wherein at least one of the first face portion and the second face portion is a sidewall of the dielectric compartment. a housing (105; 205; 805; 1005; 1105; 1205; 1305; 1405; 1505; 1605; 1705; 1805; 1905; 2005; 2105); an implantable telemetry circuit (106; 116; 206) carried within the housing; a dielectric compartment (107; 207; 307; 807; 907; 1007; 1107; 1207; 1307; 1407; 1507; 1607; 1707; 1807; 1907; 2007; 2107; 2307; 2407; 2507), mechanically coupled to the housing, the dielectric compartment including at least first and second face portions (308A; 308B); an implantable telemetry antenna (110; 210; 310; 312; 510; 710; 1010; 1210; 1310; 1410; 1510; 1610; 1710; 1810; 1910B; 2010B; 2110B; 2410), located at least partially within the dielectric compartment; wherein the implantable telemetry circuit is electrically coupled to the implantable telemetry antenna and configured to wirelessly transfer information electromagnetically using the implantable telemetry antenna; wherein the implantable telemetry antenna comprises a spiral conductor (209B; 410AB; 702; 810; 1910A; 2010A; 2110A; 2310; 2410; 2510); wherein the spiral conductor comprises a bent planar spiral pattern including concentric turns having first and second planar portions extending along and conforming to contours of the at least first and second face portions of the dielectric compartment; and wherein the first face portion is in a different plane than the second face portion, and wherein at least one of the first face portion and the second face portion is a sidewall of the dielectric compartment.
A method for welding a galvanized steel sheet having a sheet thickness of 0.8 to 4.0 mm, comprising utilizing a pulse welding of repeatedly applying a pulse peak current and a base current, setting a welding speed to 100 cm/min or less, and using a shielding gas in which 1 vol% or more and 10 vol% or less of at least either one of CO 2 and O 2 is added to Ar, wherein: the pulse peak current has a pulse peak time (Tp) being in a range of 7% or more and less than 50% of one period (Tpulse) depending on the sheet thickness of the galvanized steel sheet, wherein in a case where the sheet thickness is 0.8 mm or more and less than 1.6 mm, the pulse peak time (Tp) has a lower limit value of 7% or more of the one period (Tpulse) and the pulse peak time (Tp) has an upper limit value of less than 15% of the one period (Tpulse); in a case where the sheet thickness is 1.6 mm or more and less than 2.3 mm, the pulse peak time (Tp) has a lower limit value of 15% or more of the one period (Tpulse) and the pulse peak time (Tp) has an upper limit value of less than 30% of the one period (Tpulse); in a case where the sheet thickness is 2.3 mm or more and less than 3 mm, the pulse peak time (Tp) has a lower limit value of 20% or more of the one period (Tpulse) and the pulse peak time (Tp) has an upper limit value of 40% or less of the one period (Tpulse); and the range of the pulse peak time (Tp) of more than 40% and less than 50% relative to the time of one period (Tpulse) is applied to those where the sheet thickness is more than 3 mm and 4 mm or less. the pulse peak current has a pulse peak time (Tp) being in a range of 7% or more and less than 50% of one period (Tpulse) depending on the sheet thickness of the galvanized steel sheet, wherein in a case where the sheet thickness is 0.8 mm or more and less than 1.6 mm, the pulse peak time (Tp) has a lower limit value of 7% or more of the one period (Tpulse) and the pulse peak time (Tp) has an upper limit value of less than 15% of the one period (Tpulse); in a case where the sheet thickness is 1.6 mm or more and less than 2.3 mm, the pulse peak time (Tp) has a lower limit value of 15% or more of the one period (Tpulse) and the pulse peak time (Tp) has an upper limit value of less than 30% of the one period (Tpulse); in a case where the sheet thickness is 2.3 mm or more and less than 3 mm, the pulse peak time (Tp) has a lower limit value of 20% or more of the one period (Tpulse) and the pulse peak time (Tp) has an upper limit value of 40% or less of the one period (Tpulse); and the range of the pulse peak time (Tp) of more than 40% and less than 50% relative to the time of one period (Tpulse) is applied to those where the sheet thickness is more than 3 mm and 4 mm or less.