mhurhangee/ep-ind-claims huggingface dataset:
Device for regulating an air flow intended to circulate through a heat exchanger for a motor vehicle, the device comprising two curtains that are able to move in an opening/closing direction, between a closed position obstructing the passage of the air flow and an open position letting the air flow pass, this regulating device having a transmission system arranged to guide the movement of said curtains, and an actuator causing the transmission system to move, this transmission system having two winding shafts, each for the winding and unwinding of one of the curtains, this transmission system also having at least one belt that can be actuated to move and is arranged to rotate at least one of the winding shafts (302; 303) both in the direction of winding of the curtain and in the direction of unwinding of the curtain, characterized in that each winding shaft has a toothed pinion arranged to cooperate with the belt, which is notched, such that the movement of one of the winding shafts, in particular a movement caused by the actuator, is transmitted to the other winding shaft.
A method for resource scheduling, the method comprising: monitoring at a proxy server, by a scheduling system, a request queue of application requests on an application system utilizing the proxy server, the application system including one or more hosts and running one or more applications to be processed by the application system, each of the one or more applications having one or more instances; performing a statistical analysis, based on the number of application requests in the request queue, to obtain a blocking status of the application requests, wherein the blocking status of the application requests indicates whether the application request is blocked in respect of: (a) a host, or (b) an instance; and scheduling, by the scheduling system, computing resources of the application system for an application of the one or more applications according to a predetermined scheduling rule and the blocking status of the application requests. monitoring at a proxy server, by a scheduling system, a request queue of application requests on an application system utilizing the proxy server, the application system including one or more hosts and running one or more applications to be processed by the application system, each of the one or more applications having one or more instances; performing a statistical analysis, based on the number of application requests in the request queue, to obtain a blocking status of the application requests, wherein the blocking status of the application requests indicates whether the application request is blocked in respect of: (a) a host, or (b) an instance; and scheduling, by the scheduling system, computing resources of the application system for an application of the one or more applications according to a predetermined scheduling rule and the blocking status of the application requests.
An antibody or antibody fragment specifically binding to human angiopoietin-2 (ANG-2), characterized in that a) the heavy chain variable domain comprises a CDR3 region of SEQ ID NO: 1, a CDR2 region of SEQ ID NO: 2, and a CDR1 region of SEQ ID NO: 3, and b) the light chain variable domain comprises a CDR3 region of SEQ ID NO: 4, a CDR2 region of SEQ ID NO: 5, and a CDR1 region of SEQ ID NO: 6. a) the heavy chain variable domain comprises a CDR3 region of SEQ ID NO: 1, a CDR2 region of SEQ ID NO: 2, and a CDR1 region of SEQ ID NO: 3, and b) the light chain variable domain comprises a CDR3 region of SEQ ID NO: 4, a CDR2 region of SEQ ID NO: 5, and a CDR1 region of SEQ ID NO: 6.
A method for finish polishing semiconductor substrates, each substrate having a front surface and a back surface generally parallel to the front surface, the method comprising: contacting the front surface of a first semiconductor substrate with a polishing pad; supplying a polishing slurry to the polishing pad to polish the front surface of the first semiconductor substrate and produce a polished first semiconductor substrate; measuring the edge roll-off of the first semiconductor substrate; contacting the front surface of a second semiconductor substrate with the polishing pad;supplying a polishing slurry to the polishing pad to polish the front surface of the second semiconductor substrate; and controlling an amount of the polishing slurry supplied to the polishing pad while contacting the second semiconductor substrate with the polishing pad based on, at least in part, the measured edge roll-off of the first semiconductor substrate.
A thermoplastic gel for a connector comprising: 3 to 18 weight percent of block copolymers comprising an A--B--A triblock copolymer, wherein A represents a non-elastomeric block and B represents an elastomeric block; 2 to 15 weight percent of a hydrocarbon tackifier resin having a melting point of greater than 40°C; and 75 to 95 weight percent of a hydrocarbon oil; characterized in that: the 3 to 18 weight percent of block copolymers also comprise an A--B diblock copolymer, and the diblock copolymer to triblock copolymer ratio is in a range of 12:1 to 1:1. 3 to 18 weight percent of block copolymers comprising an A--B--A triblock copolymer, wherein A represents a non-elastomeric block and B represents an elastomeric block; 2 to 15 weight percent of a hydrocarbon tackifier resin having a melting point of greater than 40°C; and 75 to 95 weight percent of a hydrocarbon oil; characterized in that: the 3 to 18 weight percent of block copolymers also comprise an A--B diblock copolymer, and the diblock copolymer to triblock copolymer ratio is in a range of 12:1 to 1:1. the 3 to 18 weight percent of block copolymers also comprise an A--B diblock copolymer, and the diblock copolymer to triblock copolymer ratio is in a range of 12:1 to 1:1.
A method for encoding a video stream, comprising encoding, by a processor, a first slice of a first picture of the video stream; receiving, from a decoder, a feedback message indicative of having received the first slice of the first picture; in response to receiving the feedback message indicative of having received the first slice of the first picture, updating a dynamic reference picture, DRR (702, 704), with the first slice of the first picture, wherein the DRR is dynamically reconstructed by the encoder from multiple pictures comprising a second picture, and the DRR is updated by replacing a co-located slice of the second picture comprised in the DRR with the first slice of the first picture; and encoding, by the processor, a third picture of the video stream with reference to the DRR updated with the first slice of the first picture, wherein the third picture is encoded after receiving the feedback message indicative of having received the first slice of the first picture; wherein, for a slice of the third picture, motion compensated prediction can be performed using co-located and non-co-located slices of the DRR. encoding, by a processor, a first slice of a first picture of the video stream; receiving, from a decoder, a feedback message indicative of having received the first slice of the first picture; in response to receiving the feedback message indicative of having received the first slice of the first picture, updating a dynamic reference picture, DRR (702, 704), with the first slice of the first picture, wherein the DRR is dynamically reconstructed by the encoder from multiple pictures comprising a second picture, and the DRR is updated by replacing a co-located slice of the second picture comprised in the DRR with the first slice of the first picture; and encoding, by the processor, a third picture of the video stream with reference to the DRR updated with the first slice of the first picture, wherein the third picture is encoded after receiving the feedback message indicative of having received the first slice of the first picture; wherein, for a slice of the third picture, motion compensated prediction can be performed using co-located and non-co-located slices of the DRR.
A reformer, comprising: a reformer body having a cylindrical shape that carries out a reforming reaction by a raw fuel gas and water supplied thereto, the reformer body comprising therein a vaporization portion which generates steam and a reforming portion which reacts the steam generated in the vaporization portion with the raw fuel gas to generate a reformed gas, at least one of a convex portion and a rough portion having a higher degree of surface roughness than that of other portions, being disposed on at least one of an inner circumferential surface and an outer circumferential surface of the reformer body, wherein a supply port to which the raw fuel gas and water are supplied is provided at one end of the reformer body, and a reformed gas delivery port for delivering a reformed gas is provided at the other end of the reformer body, the reformer further comprising at least one partition wall extending in a direction perpendicular to a central axis line of the reformer body, wherein the at least one partition wall is provided with an opening through which the raw fuel gas, the steam, and the reformed gas flow, and at least one of the at least one partition wall has an opening area on a lower side of the central axis line which is larger than an opening area on an upper side of the central axis line. a reformer body having a cylindrical shape that carries out a reforming reaction by a raw fuel gas and water supplied thereto, the reformer body comprising therein a vaporization portion which generates steam and a reforming portion which reacts the steam generated in the vaporization portion with the raw fuel gas to generate a reformed gas, at least one of a convex portion and a rough portion having a higher degree of surface roughness than that of other portions, being disposed on at least one of an inner circumferential surface and an outer circumferential surface of the reformer body, wherein a supply port to which the raw fuel gas and water are supplied is provided at one end of the reformer body, and a reformed gas delivery port for delivering a reformed gas is provided at the other end of the reformer body, the reformer further comprising at least one partition wall extending in a direction perpendicular to a central axis line of the reformer body, wherein the at least one partition wall is provided with an opening through which the raw fuel gas, the steam, and the reformed gas flow, and at least one of the at least one partition wall has an opening area on a lower side of the central axis line which is larger than an opening area on an upper side of the central axis line.
A conjugate, comprising a peptide conjugated to an antigen, immunogen or to a vehicle comprising an antigen or immunogen, wherein the peptide consists of the amino acid sequence of any one of SEQ ID NO: 8, 9, 12, 13, 16, 17, 19-24, 151-158, 163-166, 168, 172-176, 179-182, 185-197, 198-208 and 210-216, and wherein the antigen, the immunogen or the vehicle comprising the antigen or immunogen is conjugated to the C-terminus of the peptide.
Anesthetic dispenser comprising - an anesthetic container, - a feed device which is at least temporarily in a fluid connection with the anesthetic container, and - an anesthetic vaporizer, the anesthetic container comprising - an anesthetic tank for receiving a liquid anesthetic (Nm) and - a refill unit for refilling liquid anesthetic (Nm) into the anesthetic tank, in particular a nozzle, the anesthetic tank comprising - a wall and - a coating on the inner surface of the wall, i.e. the surface pointing toward the liquid anesthetic (Nm), the feed device being designed to feed liquid anesthetic (Nm) from the anesthetic container into the anesthetic vaporizer, and the anesthetic vaporizer being designed to generate gaseous anesthetic using the fed-in liquid anesthetic (Nm), characterized in that the coating of the anesthetic tank consists of an alloy which contains - a proportion of nickel (Ni) of between 80 wt.% and 97 wt.%, and - a proportion of phosphorus of between 3 wt.% and 15 wt.%, and the anesthetic tank comprises a visual inspection unit (30, 31), the fill level of liquid anesthetic (Nm) in the anesthetic tank being visible from the outside through the visual inspection unit (30, 31), the visual inspection unit (30, 31) being made of a transparent material and the transparent material having a proportion of at least 70 wt.% quartz (SiO 2). - an anesthetic container, - a feed device which is at least temporarily in a fluid connection with the anesthetic container, and - an anesthetic vaporizer, the anesthetic container comprising - an anesthetic tank for receiving a liquid anesthetic (Nm) and - a refill unit for refilling liquid anesthetic (Nm) into the anesthetic tank, in particular a nozzle, - an anesthetic tank for receiving a liquid anesthetic (Nm) and - a refill unit for refilling liquid anesthetic (Nm) into the anesthetic tank, in particular a nozzle, the anesthetic tank comprising - a wall and - a coating on the inner surface of the wall, i.e. the surface pointing toward the liquid anesthetic (Nm), - a wall and - a coating on the inner surface of the wall, i.e. the surface pointing toward the liquid anesthetic (Nm), the feed device being designed to feed liquid anesthetic (Nm) from the anesthetic container into the anesthetic vaporizer, and the anesthetic vaporizer being designed to generate gaseous anesthetic using the fed-in liquid anesthetic (Nm), characterized in that the coating of the anesthetic tank consists of an alloy which contains - a proportion of nickel (Ni) of between 80 wt.% and 97 wt.%, and - a proportion of phosphorus of between 3 wt.% and 15 wt.%, and - a proportion of nickel (Ni) of between 80 wt.% and 97 wt.%, and - a proportion of phosphorus of between 3 wt.% and 15 wt.%, and the anesthetic tank comprises a visual inspection unit (30, 31), the fill level of liquid anesthetic (Nm) in the anesthetic tank being visible from the outside through the visual inspection unit (30, 31), the visual inspection unit (30, 31) being made of a transparent material and the transparent material having a proportion of at least 70 wt.% quartz (SiO 2).
A method for determining differences in the relative conformations of a glycoprotein provided in different preparations of the glycoprotein, the method comprising steps of: providing first and second preparations of a particular glycoprotein of interest; obtaining a first 2D NOESY NMR spectrum of the first preparation of the particular glycoprotein of interest; obtaining a second 2D NOESY NMR spectrum, comparable to the first spectrum, of the second preparation of the particular glycoprotein of interest; and determining whether the particular glycoprotein of interest has a different conformation in the first and second glycoprotein preparations by comparing one or more cross-peaks in the first 2D NOESY NMR spectrum with one or more corresponding cross-peaks in the second 2D NOESY NMR spectrum. providing first and second preparations of a particular glycoprotein of interest; obtaining a first 2D NOESY NMR spectrum of the first preparation of the particular glycoprotein of interest; obtaining a second 2D NOESY NMR spectrum, comparable to the first spectrum, of the second preparation of the particular glycoprotein of interest; and determining whether the particular glycoprotein of interest has a different conformation in the first and second glycoprotein preparations by comparing one or more cross-peaks in the first 2D NOESY NMR spectrum with one or more corresponding cross-peaks in the second 2D NOESY NMR spectrum.
Actuator for a vehicle, comprising a base, a covering element, a handle piece and a Bowden cable, wherein the Bowden cable has a terminal fitting, characterized in that the base comprises a guiding element that moves the terminal fitting of the Bowden cable into a defined initial position for assembling the handle piece to the terminal fitting.
A stable liquid pharmaceutical antibody formulation comprising: - 50 mg/ml - 200 mg/ml of an Abeta antibody, - 0.01 % - 0.1% of a poloxamer, preferably poloxamer 188, - 5 mM - 50 mM of a buffer, - 100 mM - 300 mM of a stabilizer, at a pH of 4.5 - 7.0, wherein the Abeta antibody is a monoclonal antibody comprising a heavy chain and a light chain, wherein the heavy chain of the Abeta antibody comprises a VH domain which comprises: - a CDR1 comprising the amino acid sequence of Seq. Id. No. 4, - a CDR2 comprising the amino acid sequence of Seq. Id. No. 5, - a CDR3 sequence comprising the amino acid sequence of Seq. Id. No. 6, and the light chain of the Abeta antibody comprises a VL domain which comprises: - a CDR1 comprising the amino acid sequence of Seq. Id. No. 7, - a CDR2 comprising the amino acid sequence of Seq. Id. No. 8, - a CDR3 sequence comprising the amino acid sequence of Seq. Id. No. 9. - 50 mg/ml - 200 mg/ml of an Abeta antibody, - 0.01 % - 0.1% of a poloxamer, preferably poloxamer 188, - 5 mM - 50 mM of a buffer, - 100 mM - 300 mM of a stabilizer, - a CDR1 comprising the amino acid sequence of Seq. Id. No. 4, - a CDR2 comprising the amino acid sequence of Seq. Id. No. 5, - a CDR3 sequence comprising the amino acid sequence of Seq. Id. No. 6, and - a CDR1 comprising the amino acid sequence of Seq. Id. No. 7, - a CDR2 comprising the amino acid sequence of Seq. Id. No. 8, - a CDR3 sequence comprising the amino acid sequence of Seq. Id. No. 9.
Welding equipment (1; 25; 30; 35; 40) for metallic materials, sandwiching metallic materials with the pair electrodes and heating different regions of the metallic materials by energization with the pair of electrodes maintained at the same position with respect to the metallic materials, comprising: a first heating means which is a welding power source connected to a pair of electrodes for heating a given region of the metallic materials by applying electric power having a first frequency to the pair of electrodes; a second heating means which is a high-frequency power source connected to the pair of electrodes for heating a region of the metallic materials different from the given region by applying electric power having a second frequency to the pair of electrodes; and an energization control unit for independently controlling the first heating means and the second heating means, characterized in that the welding power source and the high-frequency power source are connected to the pair of electrodes in parallel respectively, an inductance for blocking current is connected between the welding power source and the pair of electrodes, a capacitor for blocking current is connected between the high-frequency power source and the pair of electrodes, the inductance blocks the high-frequency current supplied from the high-frequency power source to the pair of electrodes so as not to flow into the welding power source, and the capacitor blocks the current supplied from the welding power source to the pair of electrodes so as not to flow into the high-frequency power source. a first heating means which is a welding power source connected to a pair of electrodes for heating a given region of the metallic materials by applying electric power having a first frequency to the pair of electrodes; a second heating means which is a high-frequency power source connected to the pair of electrodes for heating a region of the metallic materials different from the given region by applying electric power having a second frequency to the pair of electrodes; and an energization control unit for independently controlling the first heating means and the second heating means, characterized in that the welding power source and the high-frequency power source are connected to the pair of electrodes in parallel respectively, an inductance for blocking current is connected between the welding power source and the pair of electrodes, a capacitor for blocking current is connected between the high-frequency power source and the pair of electrodes, the inductance blocks the high-frequency current supplied from the high-frequency power source to the pair of electrodes so as not to flow into the welding power source, and the capacitor blocks the current supplied from the welding power source to the pair of electrodes so as not to flow into the high-frequency power source.
A method of forming active diffusion regions in a back side contact solar cell, the method comprising: providing a wafer to be processed into a solar cell, a front side of the wafer being configured to face the sun during normal operation of the solar cell; selectively depositing P-type dopant sources (203, 204), with a lightly doped P-type dopant source and an adjacent heavily doped P-type dopant source, and N-type dopant sources (201, 202), with a lightly doped N-type dopant source and an adjacent heavily doped N-type dopant source, on a back side of the wafer, the back side being opposite the front side of the wafer, the P-type and N-type dopant sources (203, 204, 201, 202) being selectively deposited by directly printing them on the back side of the wafer; and performing a diffusion step to diffuse dopants from the P-type dopant sources (203, 204) to form P-type active diffusion regions (213, 214) of the solar cell and dopants from the N-type dopant sources (201, 202) to form N-type active diffusion regions (211, 212) of the solar cell. providing a wafer to be processed into a solar cell, a front side of the wafer being configured to face the sun during normal operation of the solar cell; selectively depositing P-type dopant sources (203, 204), with a lightly doped P-type dopant source and an adjacent heavily doped P-type dopant source, and N-type dopant sources (201, 202), with a lightly doped N-type dopant source and an adjacent heavily doped N-type dopant source, on a back side of the wafer, the back side being opposite the front side of the wafer, the P-type and N-type dopant sources (203, 204, 201, 202) being selectively deposited by directly printing them on the back side of the wafer; and performing a diffusion step to diffuse dopants from the P-type dopant sources (203, 204) to form P-type active diffusion regions (213, 214) of the solar cell and dopants from the N-type dopant sources (201, 202) to form N-type active diffusion regions (211, 212) of the solar cell.
Method for bonding a vehicle body part comprising an aspect part and a structural part comprising the following steps: - Step 1: heating a gluing area on the structural part using a heating element, - Step 2: applying an amount of glue on an area to be glued on the aspect part, - Step 3: placing the aspect part on top of the structural part, characterized in that the mehod also comprises the following step: - Step 4: pressing the aspect part against the structural part, without additional heating. - Step 1: heating a gluing area on the structural part using a heating element, - Step 2: applying an amount of glue on an area to be glued on the aspect part, - Step 3: placing the aspect part on top of the structural part, characterized in that the mehod also comprises the following step: - Step 4: pressing the aspect part against the structural part, without additional heating.