mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a tertiary amino group-containing lipid, comprising: reacting a compound represented by Formula described below R 1 -X, in Formula, R 1 represents a hydrocarbon group having at least one methylene group sandwiched between adjacent two cis form double bonds in the molecule and having the carbon number of 8 to 24 and X represents a releasing group, and a compound having at least one of each of tertiary amino group and hydroxyl group in the molecule in a saturated hydrocarbon solvent having the carbon number of 5 to 10 in the presence of an alkali catalyst. a compound represented by Formula described below R 1 -X, in Formula, R 1 represents a hydrocarbon group having at least one methylene group sandwiched between adjacent two cis form double bonds in the molecule and having the carbon number of 8 to 24 and X represents a releasing group, and a compound having at least one of each of tertiary amino group and hydroxyl group in the molecule in a saturated hydrocarbon solvent having the carbon number of 5 to 10 in the presence of an alkali catalyst.
A lower-extremity prosthesis, comprising: a foot member; a lower leg member; an ankle joint for connecting the foot member to the lower leg member; a first actuator for applying torque to the ankle joint to rotate the foot member with respect to the lower leg member; a structural element coupled to the lower leg member and comprising an interface for coupling to a limb socket member of a wearer, wherein the structural element comprises a plurality of strain gages (1782; 1786; 1790; 1794) for determining the torque applied to the lower leg member by the actuator and the axial force applied to the lower leg member; and an inertial measurement unit for determining an inertial pose of the lower leg member; and characterised in that the prosthesis further comprises a controller adapted for calculating ground reaction force and zero moment pivot coordinates imparted by an underlying surface onto the foot member based on an inertial pose of the lower leg member, the torque applied to the lower leg member by the actuator, axial force applied to the lower leg member, and an angle between the foot member and lower leg member. a foot member; a lower leg member; an ankle joint for connecting the foot member to the lower leg member; a first actuator for applying torque to the ankle joint to rotate the foot member with respect to the lower leg member; a structural element coupled to the lower leg member and comprising an interface for coupling to a limb socket member of a wearer, wherein the structural element comprises a plurality of strain gages (1782; 1786; 1790; 1794) for determining the torque applied to the lower leg member by the actuator and the axial force applied to the lower leg member; and an inertial measurement unit for determining an inertial pose of the lower leg member; and characterised in that the prosthesis further comprises a controller adapted for calculating ground reaction force and zero moment pivot coordinates imparted by an underlying surface onto the foot member based on an inertial pose of the lower leg member, the torque applied to the lower leg member by the actuator, axial force applied to the lower leg member, and an angle between the foot member and lower leg member.
A blood vessel treatment device comprising: a) a light applicator connected to a light emitting unit; and b) a catheter for inserting the light applicator into and for guiding the light applicator within a vessel wherein said catheter and said light applicator are arranged and adapted such that in use at any time said light applicator does not make intraluminal contact with any vessel wall, the light applicator is capable of delivering light energy through the sheath of the catheter so as to emit light energy to cause damage to a vessel wall, so as to result in a subsequent decrease in the diameter of said vessel and wherein the power of the light emitting unit is in the range of 1 to 150 W, preferably 10 to 50 W. a) a light applicator connected to a light emitting unit; and b) a catheter for inserting the light applicator into and for guiding the light applicator within a vessel
Method for removing at least water from a sheet material, comprising bonding of an adhesive tape containing at least one getter material to the sheet material, storage of the resulting composite of the adhesive tape and the sheet material and removal of at least a part of the adhesive tape containing getter material from the sheet material, wherein the adhesive tape can at least partially absorb at least water from the sheet material, wherein the getter material is selected from the group comprising barium, calcium, calcium sulfate, calcium chloride, calcium oxide, sodium sulfate, potassium carbonate, copper sulfate, magnesium perchlorate, magnesium sulfate, lithium chloride, silicas and zeolites and also mixtures of two or more of the abovementioned substances.
A pick-up tine reel for an agricultural machine comprising: first and second spaced apart and generally opposing end plates arranged for rotation about a common, laterally aligned axis; at least one tine bar spanning between said first and second end plates for rotation therewith to define a generally cylindrical rotational path; a plurality of tines connected to said tine bar, each tine having a mounting loop for attachment to said tine bar, a tine finger (27, 27a, 27b), and a spring coil (23, 23a, 23b) disposed therebetween, said spring coil being coiled about an axis generally parallel to said common axis; the pick-up tine reel further comprising a tine mounting bracket for connecting each of said plurality of tines to said tine bar, said mounting bracket comprising a first portion and a second portion configured to matingly engage and clamp said mounting loop in a fixed position therebetween, characterized in that said first portion has a first side surface oriented for adjacent contact with a first side of said spring coil, and said second portion has a restraining surface (37, 38) oriented for adjacent contact with a second side of said coil spring opposite of said first side wherein movement of each said tine finger is laterally inhibited. first and second spaced apart and generally opposing end plates arranged for rotation about a common, laterally aligned axis; at least one tine bar spanning between said first and second end plates for rotation therewith to define a generally cylindrical rotational path; a plurality of tines connected to said tine bar, each tine having a mounting loop for attachment to said tine bar, a tine finger (27, 27a, 27b), and a spring coil (23, 23a, 23b) disposed therebetween, said spring coil being coiled about an axis generally parallel to said common axis; the pick-up tine reel further comprising a tine mounting bracket for connecting each of said plurality of tines to said tine bar, said mounting bracket comprising a first portion and a second portion configured to matingly engage and clamp said mounting loop in a fixed position therebetween, characterized in that said first portion has a first side surface oriented for adjacent contact with a first side of said spring coil, and said second portion has a restraining surface (37, 38) oriented for adjacent contact with a second side of said coil spring opposite of said first side wherein movement of each said tine finger is laterally inhibited.
A method of machining a workpiece using a machine tool comprising a machining head and a workpiece holder moveable relative to each another the method comprising: performing a first machining operation on a workpiece mounted to the workpiece holder according to a first programmed series of movements of the machining head relative to the workpiece holder, the first machining operation having a first maximum machining tolerance; performing a second machining operation on a tighter tolerance feature of the workpiece according to a second programmed series of movements of the machining head relative to the workpiece holder, the second machining operation having a second maximum machining tolerance; replacing the cutting tool with a probe and performing a measurement operation to determine a position of an artefact on the machine tool, wherein the artefact defines features for consistent re-probing; calculating an offset relative to a corresponding previously stored position of the artefact, wherein the offset is due to changes in the machine structure; and applying the offset to the second programmed series of movements prior to performing the second machining operation, wherein the second maximum machining tolerance is smaller than the first maximum machining tolerance. performing a first machining operation on a workpiece mounted to the workpiece holder according to a first programmed series of movements of the machining head relative to the workpiece holder, the first machining operation having a first maximum machining tolerance; performing a second machining operation on a tighter tolerance feature of the workpiece according to a second programmed series of movements of the machining head relative to the workpiece holder, the second machining operation having a second maximum machining tolerance; replacing the cutting tool with a probe and performing a measurement operation to determine a position of an artefact on the machine tool, wherein the artefact defines features for consistent re-probing; calculating an offset relative to a corresponding previously stored position of the artefact, wherein the offset is due to changes in the machine structure; and applying the offset to the second programmed series of movements prior to performing the second machining operation, wherein the second maximum machining tolerance is smaller than the first maximum machining tolerance.
A male luer connector (400, 500) for coupling medical tubing, comprising: a main tube (410, 510) comprising: a tube connection opening; a tip end; a main tube channel (415, 615) that extends along a first axis from the tube connection opening to the tip end; and a circumferential opening (413a, 623a) that extends through a wall of the main tube (410, 510) from the channel (415, 615) to an outer side of the wall of the main tube (410, 510) along a second axis that is angled with respect to the first axis for connecting the main tube channel (415, 615) to a channel of a female luer connector; a male luer member (420, 520) configured to slide over the main tube (410, 510) between a closed position in which the male luer member (420, 520) covers the circumferential opening (413a, 623a) and an open position in which the male luer member (420, 520) reveals at least a portion of the circumferential opening (413a, 623a); characterised in that the male luer member (420, 520) includes a gas permeable filter (420, 651) that is substantially impermeable to liquid wherein the circumferential opening (413a, 623a) is closed by the filter (420, 651). a main tube (410, 510) comprising: a tube connection opening; a tip end; a main tube channel (415, 615) that extends along a first axis from the tube connection opening to the tip end; and a circumferential opening (413a, 623a) that extends through a wall of the main tube (410, 510) from the channel (415, 615) to an outer side of the wall of the main tube (410, 510) along a second axis that is angled with respect to the first axis for connecting the main tube channel (415, 615) to a channel of a female luer connector; a tube connection opening; a tip end; a main tube channel (415, 615) that extends along a first axis from the tube connection opening to the tip end; and a circumferential opening (413a, 623a) that extends through a wall of the main tube (410, 510) from the channel (415, 615) to an outer side of the wall of the main tube (410, 510) along a second axis that is angled with respect to the first axis for connecting the main tube channel (415, 615) to a channel of a female luer connector; a male luer member (420, 520) configured to slide over the main tube (410, 510) between a closed position in which the male luer member (420, 520) covers the circumferential opening (413a, 623a) and an open position in which the male luer member (420, 520) reveals at least a portion of the circumferential opening (413a, 623a); characterised in that the male luer member (420, 520) includes a gas permeable filter (420, 651) that is substantially impermeable to liquid wherein the circumferential opening (413a, 623a) is closed by the filter (420, 651).
A composition comprising genetically engineered anaerobic bacteria that produce -3-hydroxybutyrate ( -3-HB), and an orally ingestible carrier, for delivering -3-HB to the lumen of the GI tract, wherein the bacteria are found in the gut and naturally produce butyrate and have native genes encoding phosphotransbutyrylase and butyrate kinase, and wherein the bacteria comprise a non-native gene capable of expressing -3-hydroxybutyryl-CoA dehydrogenase.
A valve comprising a valve housing, a valve seat and a valve element, wherein the valve element is displaceable relative to the housing along an axis towards the valve seat, the valve seat is arranged in a valve seat member, and the valve comprises an insert, wherein the valve seat member comprises a first opening and the insert comprises a second opening, wherein an overlap of the first opening and the second opening determines the maximum effective flow cross section through the valve, characterized in that the valve seat member is rotatable around the axis to change the maximum effective flow cross section through the valve and in that the valve seat member is rotatably arranged in the insert.
A light-emitting diode, LED, comprising: a substrate; a carrier confinement, CC, region positioned over the substrate, the CC region defining: a first CC layer comprising aluminum gallium antimonide; and a second CC layer positioned on the first CC layer, the second CC layer comprising aluminum gallium antimonide; an active region positioned over the CC region,; a first barrier layer positioned between the CC region and the active region, wherein the first barrier layer has an aluminum composition between 20% and 45%; a second barrier layer positioned over the active region; and an electron blocking layer, EBL, positioned over the active region, the EBL comprising aluminum gallium antimonide; wherein the active region comprises indium gallium antimonide and has an indium composition between 10 and 45%, and has a thickness between 50 and 150 angstroms (5 and 15 nanometres), and wherein the active region is configured to be at least one of a quantum well structure and a multi quantum well structure, thereby to have a transient response time of less than 500 picoseconds (ps). a substrate; a carrier confinement, CC, region positioned over the substrate, the CC region defining: a first CC layer comprising aluminum gallium antimonide; and a second CC layer positioned on the first CC layer, the second CC layer comprising aluminum gallium antimonide; an active region positioned over the CC region,; a first barrier layer positioned between the CC region and the active region, wherein the first barrier layer has an aluminum composition between 20% and 45%; a second barrier layer positioned over the active region; and an electron blocking layer, EBL, positioned over the active region, the EBL comprising aluminum gallium antimonide; wherein the active region comprises indium gallium antimonide and has an indium composition between 10 and 45%, and has a thickness between 50 and 150 angstroms (5 and 15 nanometres), and wherein the active region is configured to be at least one of a quantum well structure and a multi quantum well structure, thereby to have a transient response time of less than 500 picoseconds (ps). a first CC layer comprising aluminum gallium antimonide; and a second CC layer positioned on the first CC layer, the second CC layer comprising aluminum gallium antimonide; an active region positioned over the CC region,; a first barrier layer positioned between the CC region and the active region, wherein the first barrier layer has an aluminum composition between 20% and 45%; a second barrier layer positioned over the active region; and an electron blocking layer, EBL, positioned over the active region, the EBL comprising aluminum gallium antimonide; wherein the active region comprises indium gallium antimonide and has an indium composition between 10 and 45%, and has a thickness between 50 and 150 angstroms (5 and 15 nanometres), and wherein the active region is configured to be at least one of a quantum well structure and a multi quantum well structure, thereby to have a transient response time of less than 500 picoseconds (ps).
An automation control system for wirelessly controlling a safety function of remote machine, the automation control system comprising: a base station being configured to transmit a control signal for controlling the safety function using a first transmit signal of a first safety channel, and to transmit the control signal using a second transmit signal of a second safety channel, the base station being configured to transmit the first transmit signal and the second transmit signal according to a mobile communications technology; and a control receiver being arranged spaced apart from the base station, the control receiver comprising a communication interface being configured to receive the first transmit signal and the second transmit signal, a processor being configured to extract a first received version of the control signal from the first received transmit signal, to extract a second received version of the control signal from the second received transmit signal, and an electrical interface which is connectable with an electrical interface of the machine for controlling the safety function of the machine upon the basis of the first received version of the control signal and the second received version of the control signal. a base station being configured to transmit a control signal for controlling the safety function using a first transmit signal of a first safety channel, and to transmit the control signal using a second transmit signal of a second safety channel, the base station being configured to transmit the first transmit signal and the second transmit signal according to a mobile communications technology; and a control receiver being arranged spaced apart from the base station, the control receiver comprising a communication interface being configured to receive the first transmit signal and the second transmit signal, a processor being configured to extract a first received version of the control signal from the first received transmit signal, to extract a second received version of the control signal from the second received transmit signal, and an electrical interface which is connectable with an electrical interface of the machine for controlling the safety function of the machine upon the basis of the first received version of the control signal and the second received version of the control signal.
Machine for additive manufacturing by sintering or melting powder using an energy beam acting on a powder layer in a working zone (41, 42), said machine comprising a device for layering said powder, said device comprising: • means for distributing the powder that are able to travel over the working zone in order to distribute the powder in a layer having a final thickness suitable for additive manufacturing, • feeding means that are able to transfer the powder to the distributing means by gravity, • metering means (81, 82; 811, 812) that are able to control the quantity of powder transferred to the distributing means, the feeding means and the metering means are able to move with the distributing means, and: • the machine having two separate working zones (41, 42), • the machine having two separate working trays (601, 602) that are able to move independently of one another, • each of the two working trays being associated with only one of the two working zones, • the layering device comprising a movable carriage (111; 111') carrying the feeding means, the metering means and the distributing means, said movable carriage being common to both working zones, • the machine comprising a central waiting zone situated between the two working zones (41, 42), said central waiting zone being able to accommodate the movable carriage of the layering device, and • the layering device being configured in a substantially symmetrical manner so as to be able to travel over each working zone in the direction of the central waiting zone during a layering operation, said machine being characterized in that the metering means comprise two rotary metering rolls (811, 812) positioned on either side of the distributing means, each of the two metering rolls being assigned to one of the two working zones. • means for distributing the powder that are able to travel over the working zone in order to distribute the powder in a layer having a final thickness suitable for additive manufacturing, • feeding means that are able to transfer the powder to the distributing means by gravity, • metering means (81, 82; 811, 812) that are able to control the quantity of powder transferred to the distributing means, • the machine having two separate working zones (41, 42), • the machine having two separate working trays (601, 602) that are able to move independently of one another, • each of the two working trays being associated with only one of the two working zones, • the layering device comprising a movable carriage (111; 111') carrying the feeding means, the metering means and the distributing means, said movable carriage being common to both working zones, • the machine comprising a central waiting zone situated between the two working zones (41, 42), said central waiting zone being able to accommodate the movable carriage of the layering device, and • the layering device being configured in a substantially symmetrical manner so as to be able to travel over each working zone in the direction of the central waiting zone during a layering operation,