mhurhangee/ep-ind-claims huggingface dataset:
A system for coupling a Raman probe head to a port in a bioreactor vessel containing a reaction medium, the system comprising: a Raman analyzer; a barb component with a distal end including an integral window with proximal and distal surfaces, the barb component being physically configured to be received by a port into a bioreactor vessel such that the distal surface of the window is exposed to a reaction medium in the vessel; an optic component configured to be received by the barb component, the optic component including a proximal end adapted for coupling to a Raman probe head characterized in that: the optic component further includes a distal end including at least one lens for focusing light to, and collecting light from, a sample focus in the reaction medium for analysis by a Raman analyzer coupled to the probe head; wherein the sample focus of the lens in the reaction medium is set at a predetermined distance from the distal surface of the window using a spacer component that is adjusted and aligned using a focus alignment tool; wherein the lens is retained within a lens mount axially moveable within the optic component; wherein the spacer component includes proximal and distal ends and, once the predetermined distance is established using the focus alignment tool, the proximal end of the spacer component is bonded to the lens mount with the distal end of the spacer adapted for contact with the proximal surface of the window; and further including a spring in the optic component for biasing the lens mount distally to ensure that the distal end of the spacer component maintains contact with the proximal surface of the window. a Raman analyzer; a barb component with a distal end including an integral window with proximal and distal surfaces, the barb component being physically configured to be received by a port into a bioreactor vessel such that the distal surface of the window is exposed to a reaction medium in the vessel; an optic component configured to be received by the barb component, the optic component including a proximal end adapted for coupling to a Raman probe head characterized in that: the optic component further includes a distal end including at least one lens for focusing light to, and collecting light from, a sample focus in the reaction medium for analysis by a Raman analyzer coupled to the probe head; wherein the sample focus of the lens in the reaction medium is set at a predetermined distance from the distal surface of the window using a spacer component that is adjusted and aligned using a focus alignment tool; wherein the lens is retained within a lens mount axially moveable within the optic component; wherein the spacer component includes proximal and distal ends and, once the predetermined distance is established using the focus alignment tool, the proximal end of the spacer component is bonded to the lens mount with the distal end of the spacer adapted for contact with the proximal surface of the window; and further including a spring in the optic component for biasing the lens mount distally to ensure that the distal end of the spacer component maintains contact with the proximal surface of the window.
A method for measuring the vapor pressure of liquid and solid substances, in which a sample of the substance is arranged in a variable volume of a measuring cell, the measuring cell is gas-tightly closed, the volume of the measuring cell is increased until reaching a measuring volume, and at least one first value of the gas pressure prevailing after the increase in volume is measured, characterized in that in addition the volume of the measuring cell is reduced until reaching the measuring volume, and at least one second value of the gas pressure prevailing after the reduction of the volume is measured, and the vapor pressure is calculated from the at least one first and at least one second measured values.
A fixation system, comprising: a body, wherein the body has a first end and a second end; a body rod receiving channel disposed adjacent the first end of the body; a fastener head receiving chamber disposed adjacent the second end of the body, wherein the fastener head receiving chamber is tapered towards the second end of the body, and wherein the body rod receiving channel and the fastener head receiving chamber are operatively connected; a pin fixably attached to the body; a pressure cap slidably engaged with the pin and disposed within the body; a compression element configured to cooperate with the body to urge a rod, when the rod is disposed within the body rod receiving channel, into contact with at least part of the pressure cap; and a flange disposed over a body aperture at the second end of the body, wherein the flange has an elongated flange aperture; characterized in that the system further comprises at least one pin mounting cradle positioned in the body having a first diameter that is larger than a second diameter; in that said pin is fixably attached to the body via the pin mounting cradle, the pin including a pin head that is larger than a pin shaft, the pin head being configured not to extend beyond the first diameter of the pin mounting cradle; and in that the pressure cap includes pin receiving slots that extend through an entire wall of the pressure cap. a body, wherein the body has a first end and a second end; a body rod receiving channel disposed adjacent the first end of the body; a fastener head receiving chamber disposed adjacent the second end of the body, wherein the fastener head receiving chamber is tapered towards the second end of the body, and wherein the body rod receiving channel and the fastener head receiving chamber are operatively connected; a pin fixably attached to the body; a pressure cap slidably engaged with the pin and disposed within the body; a compression element configured to cooperate with the body to urge a rod, when the rod is disposed within the body rod receiving channel, into contact with at least part of the pressure cap; and a flange disposed over a body aperture at the second end of the body, wherein the flange has an elongated flange aperture; characterized in that the system further comprises at least one pin mounting cradle positioned in the body having a first diameter that is larger than a second diameter; in that said pin is fixably attached to the body via the pin mounting cradle, the pin including a pin head that is larger than a pin shaft, the pin head being configured not to extend beyond the first diameter of the pin mounting cradle; and in that the pressure cap includes pin receiving slots that extend through an entire wall of the pressure cap.
Assembly for filtering the fuel of a motor vehicle, comprising a fuel filter equipped with a purge system opening an outlet port directed downwards, and a protective deflector comprising a shaped flat horizontal disposed an below the filter having a bore vertically aligned below the outlet orifice, the face superi eure the deflector having walls forming a closed contour around the bore, characterized in that the upper face of the deflector comprises ribs disposed in the longitudinal direction of the vehicle and a curved rib which surrounds the bore and whose ends meet one side a longitudinal rib to form the closed contour.
An organic electroluminescence device comprising: at least an anode electrode; a hole injection layer a hole transport layer; a light emitting layer; an electron transport layer; a cathode electrode; and a capping layer in the stated order, wherein the capping layer includes a material having an extinction coefficient of not less than 0.3 at wavelengths of from 400 nm to 410 nm and an absorbance of not less than 0.2 at wavelengths of from 400 nm to 410 nm in the absorption spectrum of a concentration of 10 -5 mol/l, characterized in that the hole injection layer includes an electron acceptor (Acceptor-1) of the following structural formula and a compound of the following structural formula, and the electron transport layer includes a compound of the following structural formula a hole injection layer a hole transport layer; a light emitting layer; an electron transport layer; a cathode electrode; and a capping layer in the stated order, wherein the capping layer includes a material having an extinction coefficient of not less than 0.3 at wavelengths of from 400 nm to 410 nm and an absorbance of not less than 0.2 at wavelengths of from 400 nm to 410 nm in the absorption spectrum of a concentration of 10 -5 mol/l, characterized in that the hole injection layer includes an electron acceptor (Acceptor-1) of the following structural formula and a compound of the following structural formula, and the electron transport layer includes a compound of the following structural formula
Loading arm assembly for a load-handling vehicle, having a main arm and having an auxiliary arm, wherein the loading arm assembly is configured for unloading and loading ISO containers and for unloading and loading transportation containers having a hook, characterized in that a crossbeam having two corner grippers (24, 25) and furthermore, separately therefrom, a telescopic gripping hook is disposed on the auxiliary arm.
A gearbox assembly with a drive shaft and an intermediate shaft, on which a sliding gear can be axially displaced by means of a selector rod in order to shift between different gears, wherein the gearbox assembly comprises a locking device which is configured to lock the selector rod in at least one of the gears, wherein the gearbox assembly comprises a differential and the intermediate shaft transmits a torque from the drive shaft to the differential, characterized in that a rotational movement at the differential can be detected by means of a sensor, in particular a rotary speed sensor, in order to operate the locking device.
A multicast forwarding method, wherein the method comprises: listening to, by a first multicast router (MCR 1), a plurality of unicast packets passing through the first multicast router (MCR 1), and determining a set of unicast packets that are from a same upstream multicast router and that belong to a same unicast stream, wherein the unicast packets in the unicast stream carry a same multicast identifier, and the multicast identifier indicates that the unicast packets in the unicast stream are from a same data source server and are to be sent to destination devices that belong to a same multicast group; when determining that destination addresses of at least two unicast packets in the unicast packet set are different, sending, by the first multicast router (MCR 1), a prune message to the upstream multicast router, wherein the prune message carries a destination address group determined from all the unicast packets in the unicast packet set, the prune message is used to instruct the upstream multicast router to stop sending the unicast packets with the multicast identifier to the destination devices corresponding to the destination address group, and send the to-be-sent unicast packets with the multicast identifier to the first multicast router (MCR 1); and sending, by the first multicast router (MCR 1), the received unicast packets with the multicast identifier to the destination devices corresponding to the destination address group. listening to, by a first multicast router (MCR 1), a plurality of unicast packets passing through the first multicast router (MCR 1), and determining a set of unicast packets that are from a same upstream multicast router and that belong to a same unicast stream, wherein the unicast packets in the unicast stream carry a same multicast identifier, and the multicast identifier indicates that the unicast packets in the unicast stream are from a same data source server and are to be sent to destination devices that belong to a same multicast group; when determining that destination addresses of at least two unicast packets in the unicast packet set are different, sending, by the first multicast router (MCR 1), a prune message to the upstream multicast router, wherein the prune message carries a destination address group determined from all the unicast packets in the unicast packet set, the prune message is used to instruct the upstream multicast router to stop sending the unicast packets with the multicast identifier to the destination devices corresponding to the destination address group, and send the to-be-sent unicast packets with the multicast identifier to the first multicast router (MCR 1); and sending, by the first multicast router (MCR 1), the received unicast packets with the multicast identifier to the destination devices corresponding to the destination address group.
An item of equipment for monitoring data exchanges in a communication network comprising a plurality of nodes (110, 121 to 126) exchanging data by packets and at least one router (131 and 132) configured to route said data packets between the various nodes, said monitoring equipment being characterised in that it is configured to enable updating the routing tables of the at least one said router and, when a data packet is received from a router on one of its ports, to return said data packet to the router via the same port without modifying it.
A surgical system comprising: a curved link of a manipulator arm, the curved link having an end; a telescoping cannula mount assembly positioned in the end of the curved link, the telescoping cannula mount assembly including a curved cannula mount arm; wherein: in a first state, the curved cannula mount arm is parked within the end of the curved link; in a second state, the curved cannula mount arm is locked in an extended position from the end of the curved link; the curved cannula mount arm is configured to be manually moved from the first state to the second state; and a force used to move the curved cannula mount arm from the first state to the second state is stored as potential energy in a mechanical arm retraction system. a curved link of a manipulator arm, the curved link having an end; a telescoping cannula mount assembly positioned in the end of the curved link, the telescoping cannula mount assembly including a curved cannula mount arm; wherein: in a first state, the curved cannula mount arm is parked within the end of the curved link; in a second state, the curved cannula mount arm is locked in an extended position from the end of the curved link; the curved cannula mount arm is configured to be manually moved from the first state to the second state; and a force used to move the curved cannula mount arm from the first state to the second state is stored as potential energy in a mechanical arm retraction system. in a first state, the curved cannula mount arm is parked within the end of the curved link; in a second state, the curved cannula mount arm is locked in an extended position from the end of the curved link; the curved cannula mount arm is configured to be manually moved from the first state to the second state; and a force used to move the curved cannula mount arm from the first state to the second state is stored as potential energy in a mechanical arm retraction system.
Device (1, 21) for coating a medical implant, whereby the device (1, 21) comprises a container (4, 24) that contains a liquid (6, 26), whereby the liquid (6, 26) comprises at least one pharmaceutically active substance, whereby the device (1, 21) comprises an elastic head (8, 28) for application of the liquid (6, 26) onto a surface to be coated that is connected to the inside of the container (4, 24) through at least one channel (12, 32) such that the liquid (6, 26) wets the surface to be coated when the elastic head (8, 28) passes or rolls over the surface to be coated, characterised in that at least part of the floor and/or at least one wall of the container (4, 24) comprises an elastic membrane that can be punctured.
An insertable light-dispensing catheter device, comprising: i. a shaft including a proximal and distal end; ii. a light guide extending through the shaft; iii. a mirror displaceably extendable from the shaft into a position where the mirror receives and reflects light emitted from the light guide; iv. an expandable unit which is a balloon; v. an actuator configured to expand and retract the expandable unit, wherein the actuator includes a fluid conduit extending through the shaft and coupled with the balloon to enable inflation and retraction of the balloon via injection or withdrawal of a fluid to or from the balloon via the fluid conduit; the device being characterised by further comprising: vi. a patch mounted about the fluid conduit and positioned to be displaced by the balloon when the balloon is inflated, wherein a photo-curable adhesive is contained in the patch or coated on the patch on a side of the patch opposite the balloon; wherein the mirror is provided on the balloon or on/toward the distal tip of the light guide inserted into the balloon to reflect and distribute light back onto the patch. i. a shaft including a proximal and distal end; ii. a light guide extending through the shaft; iii. a mirror displaceably extendable from the shaft into a position where the mirror receives and reflects light emitted from the light guide; iv. an expandable unit which is a balloon; v. an actuator configured to expand and retract the expandable unit, wherein the actuator includes a fluid conduit extending through the shaft and coupled with the balloon to enable inflation and retraction of the balloon via injection or withdrawal of a fluid to or from the balloon via the fluid conduit;
An air-distributing device for a ventilation system of a building, comprising a housing which comprises two, preferably three, most preferably four double connections on the housing outside for the fluidic connection of respectively one air duct and/or air tube, wherein the housing has a cuboid design and comprises six housing faces, of which two, preferably three, most preferably four respectively provide a double connection, characterized in that the housing provides air-distributing channels (6, 7) in the interior thereof, which channels are fluidically separated from each other and respectively connect all first and all second single connections (4, 5) of the double connections fluidically to each other.
A process for inhibiting polymerization of an aromatic vinyl compound which comprises adding at least one nitrogenous aromatic compound selected from the group consisting of phenazine, 2-methylphenazine, 2-ethylphenazine, quinoxaline, 2-methylquinoxaline, 2-phenylquinoxaline, 3-amino-7-hydroxyl-2-methylphenazine and tetrabenzo[a,c,h,j]phenazine in combination with a sulfonic acid compound or sulfuric acid represented by the following general formula during the stage producing, purifying, storing or transporting the aromatic vinyl compound wherein R 32 represents hydroxyl group, a straight or branched chain alkyl group having 1-32 carbon atoms, an alkylphenyl group wherein the alkyl group is a straight or branched chain alkyl having 1-32 carbon atoms or an alkylnaphthyl group wherein the alkyl group is a straight or branched chain alkyl having 1-32 carbon atoms.
Use of a corrosion-resistant, hot- and cold-workable and weldable steel with high resistance to hydrogen-induced embrittlement, of the following composition: 0.01 to 0.4% by weight carbon, ≤ 3.0% by weight silicon, 4 to 20% by weight manganese, 10.5 to 30% by weight chromium, 4-12.5% by weight nickel, ≤ 1.0% by weight molybdenum, ≤ 0.2% by weight nitrogen, 1.5 to 6.0% by weight aluminium, ≤ 4.0% by weight copper, ≤ 0.1% by weight boron, ≤ 1.0% by weight tungsten, ≤ 5.0% by weight cobalt, ≤ 0.5% by weight tantalum, ≤ 2.0% by weight of at least one of the elements: niobium, titanium, vanadium, hafnium and zirconium, ≤ 0.3% by weight of at least one of the elements: yttrium, scandium, lanthanum, cerium and neodymium, remainder iron and steel accompanying elements which are caused by smelting, for hydrogen technology in motor vehicles. 0.01 to 0.4% by weight carbon, ≤ 3.0% by weight silicon, 4 to 20% by weight manganese, 10.5 to 30% by weight chromium, 4-12.5% by weight nickel, ≤ 1.0% by weight molybdenum, ≤ 0.2% by weight nitrogen, 1.5 to 6.0% by weight aluminium, ≤ 4.0% by weight copper, ≤ 0.1% by weight boron, ≤ 1.0% by weight tungsten, ≤ 5.0% by weight cobalt, ≤ 0.5% by weight tantalum, ≤ 2.0% by weight of at least one of the elements: niobium, titanium, vanadium, hafnium and zirconium, ≤ 0.3% by weight of at least one of the elements: yttrium, scandium, lanthanum, cerium and neodymium, remainder iron and steel accompanying elements which are caused by smelting, for hydrogen technology in motor vehicles. yttrium, scandium, lanthanum, cerium and neodymium, remainder iron and steel accompanying elements which are caused by smelting, for hydrogen technology in motor vehicles.
Method for computer-assisted operation of a memory unit, wherein • data is saved in the memory unit and the data is encoded before saving, • data is retrieved from the memory unit and the data is decoded after retrieval, wherein the memory unit is monitored for errors in that a temporal sequence of computer-assisted checking operations is carried out for the memory unit, characterised in that for first-time encoding of the data • at least one application data set is generated or selected, containing data segments having application data for an application program (AP1... AP5) and check data segments, • for each application data set, the check data segment is occupied by count data, which characterises the checking operation being implemented, • each application data set is encoded and saved, and that for checking the data in the checking operation being implemented, after retrieving and decoding the application data sets respectively • an error is determined for an application data set when the count data characterises neither the checking operation being implemented nor the most recent completely implemented checking operation, • the check data segment of the relevant application data set is occupied by count data, which characterises the checking operation being implemented, if no error was determined, • the relevant application data set is encoded and saved again if no error was determined. • data is saved in the memory unit and the data is encoded before saving, • data is retrieved from the memory unit and the data is decoded after retrieval, wherein the memory unit is monitored for errors in that a temporal sequence of computer-assisted checking operations is carried out for the memory unit, characterised in that for first-time encoding of the data wherein the memory unit is monitored for errors in that a temporal sequence of computer-assisted checking operations is carried out for the memory unit, characterised in that for first-time encoding of the data • at least one application data set is generated or selected, containing data segments having application data for an application program (AP1... AP5) and check data segments, • for each application data set, the check data segment is occupied by count data, which characterises the checking operation being implemented, • each application data set is encoded and saved, and that for checking the data in the checking operation being implemented, after retrieving and decoding the application data sets respectively • an error is determined for an application data set when the count data characterises neither the checking operation being implemented nor the most recent completely implemented checking operation, • the check data segment of the relevant application data set is occupied by count data, which characterises the checking operation being implemented, if no error was determined, • the relevant application data set is encoded and saved again if no error was determined.