mhurhangee/ep-ind-claims huggingface dataset:
A module (100, 120) for an automated biology laboratory system, comprising: a housing, a rotatable storage device (108, 330) located within the housing, the storage device (108, 330) having a plurality of plate slots for receiving microplates or lab-ware with a microplate footprint (116, 320, 322, 324) or containers; a transfer slot to transfer said microplates or containers between an inside of the module (100, 120) and an outside of the module (100, 120); indexing means (140, 142) to facilitate alignment of the transfer slot with a microplate transfer interface (130, 134) comprising an aperture of the housing, connection means for fixedly connecting the microplate transfer interface (133, 134) of the module to a microplate transfer interface (130, 134) of an adjacent module, further comprising a robotic handling device for transferring microplates or lab-ware with a microplate footprint (116, 320, 322, 324) or containers (326, 327) between one of the plate slots and the transfer slot, and through the aperture of the microplate transfer interface (130, 134) in a radial horizontal direction, wherein the robotic handling device is positioned in the centre of the module. a housing, a rotatable storage device (108, 330) located within the housing, the storage device (108, 330) having a plurality of plate slots for receiving microplates or lab-ware with a microplate footprint (116, 320, 322, 324) or containers; a transfer slot to transfer said microplates or containers between an inside of the module (100, 120) and an outside of the module (100, 120); indexing means (140, 142) to facilitate alignment of the transfer slot with a microplate transfer interface (130, 134) comprising an aperture of the housing, connection means for fixedly connecting the microplate transfer interface (133, 134) of the module to a microplate transfer interface (130, 134) of an adjacent module, further comprising a robotic handling device for transferring microplates or lab-ware with a microplate footprint (116, 320, 322, 324) or containers (326, 327) between one of the plate slots and the transfer slot, and through the aperture of the microplate transfer interface (130, 134) in a radial horizontal direction, wherein the robotic handling device is positioned in the centre of the module.
A process for producing aromatic hydrocarbons, comprising bringing a feedstock containing mainly a light hydrocarbon having 2 to 7 carbon atoms into contact with a catalyst composition comprising at least a gallium-containing crystalline aluminosilicate, wherein a reaction step for converting the feedstock to aromatic hydrocarbons comprises at least two or more reaction layers formed from the catalyst composition, arranged in series and heating means arranged either between or in the reaction layers, wherein, when the number of the reaction layers in series is represented by n, with n being an integer of 2 or greater, the catalyst amount in the first stage reaction layer is 60/n percent by volume or less of the total catalyst amount.
A multidirectional operating device, comprising: an operational knob comprising a knob body that is adapted to a rotation operation and an inclination operation, a cylindrical portion that protrudes from a bottom side of the knob body, and a plurality of ribs that protrude from a side surface of the cylindrical portion in a radial direction; and a bezel portion disposed around a rotational axis of the operational knob,wherein the bezel portion comprises: a plurality of limiting portions formed standing from a top surface side so as to limit the inclination operation of the operational knob by being opposite to a contact surface of the ribs when the operational knob is located at a neutral position; and a plurality of permitting portions arranged between the plurality of limiting portions so as to permit the inclination operation of the operational knob while avoiding a contact with the contact surface of the ribs when the operational knob is located at an operational position that allows the inclination operation by being rotated from the neutral position to a right or left position. an operational knob comprising a knob body that is adapted to a rotation operation and an inclination operation, a cylindrical portion that protrudes from a bottom side of the knob body, and a plurality of ribs that protrude from a side surface of the cylindrical portion in a radial direction; and a bezel portion disposed around a rotational axis of the operational knob,wherein the bezel portion comprises: a plurality of limiting portions formed standing from a top surface side so as to limit the inclination operation of the operational knob by being opposite to a contact surface of the ribs when the operational knob is located at a neutral position; and a plurality of permitting portions arranged between the plurality of limiting portions so as to permit the inclination operation of the operational knob while avoiding a contact with the contact surface of the ribs when the operational knob is located at an operational position that allows the inclination operation by being rotated from the neutral position to a right or left position. a plurality of limiting portions formed standing from a top surface side so as to limit the inclination operation of the operational knob by being opposite to a contact surface of the ribs when the operational knob is located at a neutral position; and a plurality of permitting portions arranged between the plurality of limiting portions so as to permit the inclination operation of the operational knob while avoiding a contact with the contact surface of the ribs when the operational knob is located at an operational position that allows the inclination operation by being rotated from the neutral position to a right or left position.
A probe comprising a label being 7-nitrobenzo-2-oxa-1,3-diazole and a binding moiety being polymyxin B1 wherein the 6-methyloctanoic acid group has been removed or polymyxin B2 wherein the 6-methylheptanoic acid group has been removed.
An organic semiconductor material comprising a perylene tetracarboxylic diimide derivative represented by the following formula: wherein R 1 means a linear alkyl group having from 8 to 20 carbon atoms, R 2 means a linear alkyl group having from 2 to 6 carbon atoms, R 3 means a linear alkyl group having from 2 to 6 carbon atoms, X 1 and X 2 each mean an oxygen atom, Y means a halogen atom or cyano group, m stands for a number of from 0 to 4, and n stands for a number of from 0 to 2, and the alkyl groups represented by R 1 and R 2 may each be substituted with one or more fluorine atoms. R 1 means a linear alkyl group having from 8 to 20 carbon atoms, R 2 means a linear alkyl group having from 2 to 6 carbon atoms, R 3 means a linear alkyl group having from 2 to 6 carbon atoms, X 1 and X 2 each mean an oxygen atom, Y means a halogen atom or cyano group, m stands for a number of from 0 to 4, and n stands for a number of from 0 to 2, and
Method for operating a lighting device for a motor vehicle (1, 3), in which a headlamp of the motor vehicle (1, 3) projects a symbol onto a surface, having the steps: - receiving a predetermined illumination map from a control body in a normal operation of the motor vehicle (1, 3) as intended, wherein by means of the illumination map the projection of the symbol onto the surface and a position in a coordinate system relating to the motor vehicle (1, 3) are predetermined, and by means of the illumination map a brightness value is assigned to several points or coordinates in the coordinate system relating to the motor vehicle (1, 3), - determining a radiating characteristic for the headlamp such that the symbol is projected onto the surface as predetermined by means of the illumination map, wherein only those regions of the symbol are projected by the headlamp onto the surface which lie in a predetermined illumination region (10, 30) of the headlamp and the predetermined illumination region (10, 30) is selected such that a dazzling of other road users is reduced, and - setting the determined radiating characteristic for the headlamp, wherein the motor vehicle (1, 3) is one of a grouping of several motor vehicles (1, 3) and the illumination map is received by the grouping of several motor vehicles (1, 3) as a control body and by means of the illumination map a further radiating characteristic of a headlamp of a further motor vehicle (1, 3) of the several motor vehicles (1, 3) is synchronised with the determined radiating characteristic, wherein the motor vehicle (1, 3) exchanges data for creating the illumination map with one or several motor vehicles (1, 3) from the grouping of the several motor vehicles (1, 3). - receiving a predetermined illumination map from a control body in a normal operation of the motor vehicle (1, 3) as intended, wherein by means of the illumination map the projection of the symbol onto the surface and a position in a coordinate system relating to the motor vehicle (1, 3) are predetermined, and by means of the illumination map a brightness value is assigned to several points or coordinates in the coordinate system relating to the motor vehicle (1, 3), - determining a radiating characteristic for the headlamp such that the symbol is projected onto the surface as predetermined by means of the illumination map, wherein only those regions of the symbol are projected by the headlamp onto the surface which lie in a predetermined illumination region (10, 30) of the headlamp and the predetermined illumination region (10, 30) is selected such that a dazzling of other road users is reduced, and - setting the determined radiating characteristic for the headlamp, wherein
An actuating device for a rotatable closure part of a valve, with a housing, in which a drive piston (4; 40) sealed against a cylindrical housing shell (2.1) and pressurizable on one side with a pressurizing medium is arranged, which has a piston shaft (4.2; 40b.2), with a drive shaft, which is guided out of the housing on one side and drives the closure part in a rotating manner indirectly or directly, wherein the drive piston (4; 40) executes either in the case of one-sided pressurization with the pressurizing medium an axial shift motion against the effect of at least one return spring or in the case of two-sided pressurization with a pressurizing medium executes a back and forth shift motion, wherein the piston shaft (4.2; 40b.2) experiences an axially oriented guidance in the housing via at least one axial groove (4.4a) designed in it, into which a straight guiding cam permanently connected with the housing engages and wherein the piston shaft (4.2; 40b.2) has at least one helical groove (4.3a) arranged in it, into which a driving pin (12; 12*) permanently arranged on the drive shaft engages, so that the radially and axially mounted drive shaft experiences a rotation around the axis of rotation through the axial shift motion of the drive piston (4; 40) oriented in the direction of its axis of rotation, characterized in that • the drive shaft is radially mounted on two sides in a bearing sleeve (2.4) engaging in the housing, permanently connected with it and ending in it, • the piston shaft (4.2; 40b.2) is axially displaceable and radially mounted on the outer shell surface of the bearing sleeve (2.4), • and in that the at least one driving pin experiences a stroke-independent, direct restriction of its rotational movement around the axis of rotation through stop means (2.4a) provided in the bearing sleeve (2.4). • the drive shaft is radially mounted on two sides in a bearing sleeve (2.4) engaging in the housing, permanently connected with it and ending in it, • the piston shaft (4.2; 40b.2) is axially displaceable and radially mounted on the outer shell surface of the bearing sleeve (2.4), • and in that the at least one driving pin experiences a stroke-independent, direct restriction of its rotational movement around the axis of rotation through stop means (2.4a) provided in the bearing sleeve (2.4).
A method of producing a biomatrix scaffold from mammalian liver tissue, comprising: a) perfusing or homogenizing the liver tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the biological tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-free and has an osomolality from 250 mOsm/kg to 350 mOsm/kg, thereby producing an intact or homogenized biomatrix scaffold from the biological tissue, said biomatrix scaffold retaining at least 95% of its original collagens and most collagen-associated matrix components and matrix bound growth factors, hormones and cytokines of the biological tissue. a) perfusing or homogenizing the liver tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the biological tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-free and has an osomolality from 250 mOsm/kg to 350 mOsm/kg,
A method for transmitting and receiving information with a base Station, BS, by a User Equipment, UE, in a wireless communication system, the method comprising: receiving, via a primary cell as a licensed band, uplink grant scheduling of a Physical Uplink Shared CHannel, PUSCH, for an unlicensed band and - receiving from the BS an activation message comprising information on a starting position of the PUSCH, wherein the activation message is received after the uplink grant is received; performing a carrier sensing on the unlicensed band for a time duration; and transmitting the PUSCH through the unlicensed band based on the uplink grant and the information on the starting position of the PUSCH, wherein the PUSCH is transmitted on the unlicensed band based on the unlicensed band being sensed to be idle during the time duration. receiving, via a primary cell as a licensed band, uplink grant scheduling of a Physical Uplink Shared CHannel, PUSCH, for an unlicensed band and - receiving from the BS an activation message comprising information on a starting position of the PUSCH, wherein the activation message is received after the uplink grant is received; - receiving from the BS an activation message comprising information on a starting position of the PUSCH, wherein the activation message is received after the uplink grant is received; performing a carrier sensing on the unlicensed band for a time duration; and transmitting the PUSCH through the unlicensed band based on the uplink grant and the information on the starting position of the PUSCH, wherein the PUSCH is transmitted on the unlicensed band based on the unlicensed band being sensed to be idle during the time duration.
Refrigeration appliance with at least two compartments (2, 3) designed for different storage temperatures and a refrigerant circuit, in which a first route runs from a pressure-side connector of a compressor via a first refrigerant line of an evaporator of the warmer compartment to a suction connection of the compressor and a second route runs from the pressure-side connector via an evaporator of the colder compartment to the suction connection and the evaporator of the warmer compartment is positioned downstream of the evaporator of the colder compartment on the second route, characterised in that the refrigerant circulating on the second route is directed into a second refrigerant line of the evaporator of the warmer compartment, which is provided in addition to the first refrigerant line of the evaporator.
Supporting system for supporting a workpiece in a machining position, the system comprising a plurality of supporting units, each supporting unit comprising: - a head arranged for engaging and supporting a portion of the workpiece; - first actuating means arranged for driving at least one first element that is movable in at least a first direction, said head being carried by said first element with the possibility of orientation in space, said head being moved with the possibility of reaching at least one machining zone, in which the head engages and supports a portion of the workpiece, and at least one setting zone, wherein the desired orientation of the head in space is set; - second actuating means arranged for driving at least one second element that is movable in at least a second direction that is transverse to said first direction, said second element being arranged in said setting zone; - connecting means arranged on said second element to connect removably together said head and said second element such that said head can be moved by said second actuating means during the setting of the desired orientation. - a head arranged for engaging and supporting a portion of the workpiece; - first actuating means arranged for driving at least one first element that is movable in at least a first direction, said head being carried by said first element with the possibility of orientation in space, said head being moved with the possibility of reaching at least one machining zone, in which the head engages and supports a portion of the workpiece, and at least one setting zone, wherein the desired orientation of the head in space is set; - second actuating means arranged for driving at least one second element that is movable in at least a second direction that is transverse to said first direction, said second element being arranged in said setting zone; - connecting means arranged on said second element to connect removably together said head and said second element such that said head can be moved by said second actuating means during the setting of the desired orientation.
Method for measuring a concentration of sulphite in a substance in a gas cleaning process, the method comprising the steps of: sending a plurality of voltage pulses through the substance by a first electrode and a second electrode, which first and second electrodes (11, 20) are in contact with the substance, receiving current responses generated by the plurality of voltage pulses, and analyzing the current responses using a multivariate data analysis for calculation of the concentration of sulphite in the substance. sending a plurality of voltage pulses through the substance by a first electrode and a second electrode, which first and second electrodes (11, 20) are in contact with the substance, receiving current responses generated by the plurality of voltage pulses, and analyzing the current responses using a multivariate data analysis for calculation of the concentration of sulphite in the substance.
Fluid connector comprising: - a body which is generally cylindrical in shape, having two fluid connection end pieces (21, 22) and defining an internal duct in which a fluid is intended to circulate, - an assembly interface arranged on and in the body, comprising an orifice which puts the internal duct in communication with the outside of the body, a first receiving area extending around the orifice, a second receiving area extending around the first receiving area, and attachment regions, - a pressure sensor which comprises a connecting cylinder arranged in or opposite the orifice, the pressure sensor establishing contact with the first receiving area via a first gasket to provide a seal between the internal duct and the outside of the body, - a cover arranged on the pressure sensor and establishing contact with the second receiving area via a second gasket to insulate the pressure sensor from the outside environment, the cover further comprising an electrical connection end piece for connecting the pressure sensor, the fluid connector being characterized in that the cover comprises two side wings extending at least partly around the body, such that the cover overlaps the body, to engage with the attachment regions and allow the cover to be assembled on the body, and in that it comprises a resilient element arranged between the cover and one face of the pressure sensor, the other face of the pressure sensor being in contact with the body, a single contact between the cover and the sensor being established via the resilient element. - a body which is generally cylindrical in shape, having two fluid connection end pieces (21, 22) and defining an internal duct in which a fluid is intended to circulate, - an assembly interface arranged on and in the body, comprising an orifice which puts the internal duct in communication with the outside of the body, a first receiving area extending around the orifice, a second receiving area extending around the first receiving area, and attachment regions, - a pressure sensor which comprises a connecting cylinder arranged in or opposite the orifice, the pressure sensor establishing contact with the first receiving area via a first gasket to provide a seal between the internal duct and the outside of the body, - a cover arranged on the pressure sensor and establishing contact with the second receiving area via a second gasket to insulate the pressure sensor from the outside environment, the cover further comprising an electrical connection end piece for connecting the pressure sensor, the fluid connector being characterized in that the cover comprises two side wings extending at least partly around the body, such that the cover overlaps the body, to engage with the attachment regions and allow the cover to be assembled on the body, and in that it comprises a resilient element arranged between the cover and one face of the pressure sensor, the other face of the pressure sensor being in contact with the body, a single contact between the cover and the sensor being established via the resilient element.