mhurhangee/ep-ind-claims huggingface dataset:
A process for hydrocarbon refinery wastewater treatment for producing low bio-sludge, the process comprising utilizing a microbial consortia comprising species of Pseudomonas and species of Bacillus in a ratio of 10:1 to 1:10, wherein the species of Pseudomonas and species of Bacillus have constitutive expression of at least one gene for degrading hydrocarbon, and at least one microbe of the consortia has the ability to produce biosurfactant; wherein the microbial consortia consists of Pseudomonas stutzeri (MTCC 25027), Bacillus subtilis (MTCC 25026), Lysinibacillus sp. (MTCC 5666), Pseudomonas putida IOCR1 (MTCC 5387) and Lysinibacillus sp. (MTCC 25029); wherein the microbe of the consortia has the ability to grow at a temperature ranging from 5°C to 50°C and a pH ranging from 4.0 to 9.0; and wherein the microbial consortia is used in concentration of at least 10 2 cfu/ml. wherein the species of Pseudomonas and species of Bacillus have constitutive expression of at least one gene for degrading hydrocarbon, and at least one microbe of the consortia has the ability to produce biosurfactant; wherein the microbial consortia consists of Pseudomonas stutzeri (MTCC 25027), Bacillus subtilis (MTCC 25026), Lysinibacillus sp. (MTCC 5666), Pseudomonas putida IOCR1 (MTCC 5387) and Lysinibacillus sp. (MTCC 25029); wherein the microbe of the consortia has the ability to grow at a temperature ranging from 5°C to 50°C and a pH ranging from 4.0 to 9.0; and wherein the microbial consortia is used in concentration of at least 10 2 cfu/ml.
Cartridge holder assembly for a drug delivery device comprising: - a cartridge holder (14; 40) adapted to receive a cartridge to be filled with a medicinal product to be dispensed by the drug delivery device, wherein the cartridge holder (14; 40) comprises at least one through opening at a distal end section to receive a piercing element being adapted to penetrate a sealing septum of the cartridge, characterized by - a constriction member (26; 42) being adapted to axially abut against the septum and comprising a through opening (34; 52) to receive the piercing element, wherein said through opening (34; 52) is adjustable in diameter. - a cartridge holder (14; 40) adapted to receive a cartridge to be filled with a medicinal product to be dispensed by the drug delivery device, wherein the cartridge holder (14; 40) comprises at least one through opening at a distal end section to receive a piercing element being adapted to penetrate a sealing septum of the cartridge, characterized by - a constriction member (26; 42) being adapted to axially abut against the septum and comprising a through opening (34; 52) to receive the piercing element, wherein said through opening (34; 52) is adjustable in diameter.
A pharmaceutical formulation of two anti-rabies monoclonal antibodies that is stable for at least 12 months at a temperature between 2°C to 8°C, comprising: (i) anti-rabies virus monoclonal antibody CR57 (heavy chain SEQ ID NO: 1 and light chain SEQ ID NO: 2), or an antibody that is at least 95% homologous in sequence thereto and is capable of competing for binding to the target recognized by CR57 and having rabies virus neutralizing activity; and (ii) anti-rabies virus monoclonal antibody CR4098 (heavy chain SEQ ID NO: 3 and light chain SEQ ID NO: 4), or an antibody that is at least 95% homologous in sequence thereto and is capable of competing for binding to the target recognized by CR4098 and having rabies virus neutralizing activity; wherein the formulation comprises a citrate buffer at a concentration from 5 mM to 25 mM, preferably 10 mM, sodium chloride at a concentration from 50 mM to 250 mM, preferably 150 mM, and polysorbate 80 in an amount from 0.005% w/v to 0.05% w/v, and wherein the pH ranges from 5.5 to 6.5, preferably wherein the pH is 6.0. (i) anti-rabies virus monoclonal antibody CR57 (heavy chain SEQ ID NO: 1 and light chain SEQ ID NO: 2), or an antibody that is at least 95% homologous in sequence thereto and is capable of competing for binding to the target recognized by CR57 and having rabies virus neutralizing activity; and (ii) anti-rabies virus monoclonal antibody CR4098 (heavy chain SEQ ID NO: 3 and light chain SEQ ID NO: 4), or an antibody that is at least 95% homologous in sequence thereto and is capable of competing for binding to the target recognized by CR4098 and having rabies virus neutralizing activity;
A method for processing a three-dimensional mesh model, comprising: a) receiving a 3D mesh model; b) automatically detecting one or more regions including a potential sharp cusp; c) displaying the automatically detected one or more regions to a user and receiving input, from the user, d) designating an active region of the 3D mesh model; and e1) applying (S13-S16) sphere fitting and Laplacian smoothing to the designated active region to remove a sharp cusp therefrom and to obtain a modified 3D mesh model; wherein e2) the sphere fitting includes the fitting, for each respective vertex of the 3D mesh model in the active region, of a local sphere through the vertices of a one ring local neighborhood of the respective vertex such that the vertices all lie on local spheres with respect to each other and determining the center and the radius of the local sphere, and e3) in applying the sphere fitting and Laplacian smoothing to the designated active region a degree of sphere fitting-based inflation forces for an amount (μ) of inflation for each vertex calculated based on the projection of each vertex on the local sphere and a degree of surface area minimizing Laplacian forces are used to determine an extent of the sphere fitting and Laplacean smoothing, respectively. a) receiving a 3D mesh model; b) automatically detecting one or more regions including a potential sharp cusp; c) displaying the automatically detected one or more regions to a user and receiving input, from the user, d) designating an active region of the 3D mesh model; and e1) applying (S13-S16) sphere fitting and Laplacian smoothing to the designated active region to remove a sharp cusp therefrom and to obtain a modified 3D mesh model; wherein e2) the sphere fitting includes the fitting, for each respective vertex of the 3D mesh model in the active region, of a local sphere through the vertices of a one ring local neighborhood of the respective vertex such that the vertices all lie on local spheres with respect to each other and determining the center and the radius of the local sphere, and e3) in applying the sphere fitting and Laplacian smoothing to the designated active region a degree of sphere fitting-based inflation forces for an amount (μ) of inflation for each vertex calculated based on the projection of each vertex on the local sphere and a degree of surface area minimizing Laplacian forces are used to determine an extent of the sphere fitting and Laplacean smoothing, respectively.
Flow rate regulator having a deformable, preferably annular, regulating body which is inserted into a corresponding groove, wherein a regulating profile is formed on at least one groove side wall (6, 7), wherein the regulating profile is formed from a series of regulating protrusions and regulating clearances, and the regulating body and the regulating profile delimit between them a regulating gap such that a change in shape of the regulating body gives rise to a change in size of the regulating gap, wherein adjacent regulating protrusions are arranged at a spacing (10, 13) from one another, and therefore a series of spacings (10, 13) is formed, along the circumference, between respectively adjacent regulating protrusions, wherein at least two spacings (10, 13) in the series of spacings (10, 13) are selected to be of different sizes from one another, characterized - in that one spacing (10, 13) of the at least two spacings (10, 13) is more than three times as large as another spacing (10, 13) of the at least two spacings (10, 13). - in that one spacing (10, 13) of the at least two spacings (10, 13) is more than three times as large as another spacing (10, 13) of the at least two spacings (10, 13).
A medical tube comprising at least one holding apparatus with a tube clamp, the holding apparatus being configured to hold the tube clamp on the medical tube, the tube clamp comprising at least one clamping portion (7a, 7b) for altering a lumen cross-section of the medical tube during use, the holding apparatus comprising at least one receiving structure for detachably receiving at least a portion of the tube clamp, the portion of the tube clamp, which is detachably received by the receiving structure, being or comprising at least one aforesaid clamping portion (7a, 7b), characterized in that the holding apparatus and/or its receiving structure is/are provided to prevent a modification in the lumen cross-section of the tube, in particular in its flexible line portion, by means of the tube clamp, as long as the tube clamp is in the park position in which the portion of the tube clamp is arranged in or on the receiving structure.
A feeding system for carton blanks, comprising; a rotary feeder comprising a pivotable linkage (102, 103), a gripper head connected to the pivotable linkage via a gripper arm, wherein the gripper arm is connected to an outer periphery of the pivotable linkage (102,103) at a first rotational joint, whereby the gripper arm is rotatable around a first rotational axis thereof, a magazine configured to store a plurality of stacked carton blanks each having a planar configuration in a magazine plane of the magazine, when stored therein, the carton blanks being stacked in a stacking direction, parallel with a normal axis to the magazine plane, wherein the pivotable linkage comprises a first link and a second link, the first link being connected, at opposite ends thereof, to the gripper arm via the first rotational axis and to the second link, wherein the pivotable linkage is configured to be movable along a general feed path such that the gripper head follows an approach path towards a picking position at which the gripper head engage with a carton blank in the magazine, and subsequently follows a delivery path, from the picking position to a delivery position, wherein the magazine comprises a cassette in which the carton blanks are confined, when stored in the magazine, the cassette being dimensioned so that the carton blanks are confined to extend in said magazine plane between proximal and distal internal surfaces of the cassette along a cassette direction which is perpendicular to the stacking direction and said first rotational axis, wherein the proximal internal surface is arranged to align proximal edges of the carton blanks in a proximal alignment plane being perpendicular to the cassette direction, the proximal alignment plane extending between the gripper head and said first rotational axis, at least when the gripper head is in the picking position, and wherein, at least when the gripper head is in the picking position, the first rotational joint is positioned in relation to the magazine such that there is a separation distance between the proximal alignment plane and the first rotational axis, the separation distance extending in an off-set direction being parallel with the cassette direction, wherein the first and second links (102,103) rotate in a first direction relative to each other when following the approach path, until the gripper head arrives at the picking position and contacts a first carton blank, wherein the proximal alignment plane and the first rotational axis are separated by the separation distance while the first and second links (102,103) rotate in a second direction relative to each other, opposite the first direction, when the gripper head lifts the first carton blank from the magazine.
A dialysis system (10a to 10d, 110a, 110b) comprising: a portable device (30a to 30c, 90) configured to be carried by a patient such that the patient can hold the device (30a to 30c, 90) next to a marking displayed on a dialysis fluid container and configured to read the marking, the device (30a to 30c, 90) obtaining data concerning at least one of a dialysis fluid type and a dialysis fluid volume from the marking; the device (30a to 30c, 90) further configured to transfer the data to a computer (52, 120); and wherein the computer (52, 120) is configured to use the data to track therapy progress of the patient. a portable device (30a to 30c, 90) configured to be carried by a patient such that the patient can hold the device (30a to 30c, 90) next to a marking displayed on a dialysis fluid container and configured to read the marking, the device (30a to 30c, 90) obtaining data concerning at least one of a dialysis fluid type and a dialysis fluid volume from the marking; the device (30a to 30c, 90) further configured to transfer the data to a computer (52, 120); and wherein the computer (52, 120) is configured to use the data to track therapy progress of the patient.
A method of manufacturing a base oil, comprising: providing an unconverted oil having a viscosity index of 145 or more; subjecting the unconverted oil to vacuum distillation, thus separating a distillate having D5wt% of 410 to 430°C and D95wt% of 450 to 470°C; and subjecting the distillate separated through vacuum distillation to catalytic dewaxing, thus obtaining a base oil comprising 85 to 92 wt% of a paraffinic hydrocarbon and 8 to 15 wt% of a naphthenic hydrocarbon; wherein unconverted oil is an oil that has been fed to a hydrocracking process for fuel oil production but has not been converted into light fuel oil wherein contents of the paraffinic hydrocarbon and the naphthenic hydrocarbon are measured according to ASTM D2140. providing an unconverted oil having a viscosity index of 145 or more; subjecting the unconverted oil to vacuum distillation, thus separating a distillate having D5wt% of 410 to 430°C and D95wt% of 450 to 470°C; and subjecting the distillate separated through vacuum distillation to catalytic dewaxing, thus obtaining a base oil comprising 85 to 92 wt% of a paraffinic hydrocarbon and 8 to 15 wt% of a naphthenic hydrocarbon; wherein unconverted oil is an oil that has been fed to a hydrocracking process for fuel oil production but has not been converted into light fuel oil wherein contents of the paraffinic hydrocarbon and the naphthenic hydrocarbon are measured according to ASTM D2140.
Tracheal cannula for insertion into a tracheostoma, wherein the tracheal cannula comprises at least one cannula plate and at least one cannula tube assigned to the cannula plate, wherein the cannula tube comprises at least one sieve, one distal opening and one medial opening, wherein the distal opening defines a flow direction perpendicular to a distal opening surface and the sieve comprises at least two sieve openings, characterized in that the sieve openings penetrate the cannula tube in said flow direction or at an angle to a horizontal plane perpendicular to the opening surface, wherein the angle opens towards the medial opening.
Optical network element (300; 300') in particular an optical line terminal or remote node, for transmitting and/or receiving data via an optical network that comprises at least one optical fiber link forming a ring topology, wherein said optical network element (300; 300') has a primary optical interface configured to be connected with said optical fiber link to transmit and/or receive data to/from said optical network, the optical network element (300; 300') being characterized by a first coupler configured to receive optical pump power (PPa, PPb) from a pump fiber link and to couple said received optical pump power (PPa, PPb) to a first segment of said optical fiber link for forwarding said optical pump power (PPa, PPb) to at least one further network element (RN1, RN2,..), by a second coupler configured to directly forward pump power that is received from the first segment of the optical fiber link to a second segment of the optical fiber link in a counter-clockwise direction and to separate a payload signal received at said first segment from the optical pump power, and by a third coupler configured to directly forward pump power that is received from the second segment of the optical fiber link to the first segment of the optical fiber link and to separate a payload signal received at the second segment from the optical pump power.
A method comprising: at a processor and memory: receiving data based on patient information and geometric characterization of one or more organs at risk proximate to a target volume of a patient; generating, based on the data and a predictive model obtained from a plurality of prior clinical cases of other patients, a first set of radiation treatment planning parameters for the patient; generating, based on the data and the predictive model, a second set of radiation treatment planning parameters for treating the patient, the first set of radiation treatment planning parameters being different than the second set of radiation treatment planning parameters; and presenting the first and second radiation treatment planning parameters via a user interface. receiving data based on patient information and geometric characterization of one or more organs at risk proximate to a target volume of a patient; generating, based on the data and a predictive model obtained from a plurality of prior clinical cases of other patients, a first set of radiation treatment planning parameters for the patient; generating, based on the data and the predictive model, a second set of radiation treatment planning parameters for treating the patient, the first set of radiation treatment planning parameters being different than the second set of radiation treatment planning parameters; and presenting the first and second radiation treatment planning parameters via a user interface.
Escalator or moving walkway with at least one interior space (19, 79), which is delimited relative to the environment of the escalator or moving walkway by at least one cladding component (20, 21, 22, 23, 24, 25, 26, 27, 28, 31, 32, 33, 34, 35, 71, 72, 73, 74, 75, 76, 77, 78), wherein the cladding component (20,..., 78) comprises at least one multi-layer composite steel plate (40, 110, 120), characterized in that the composite steel plate (40, 110, 120) comprises at least one load-bearing layer (42, 119, 129) of low-alloy steel and at least one cover layer (41, 114, 122, 124) of corrosion-resistant steel, the at least one cover layer (41, 114, 122, 124) is arranged at one of the two side surfaces (43, 44, 111, 113, 121, 123) of the composite steel plate (40, 110, 120) and the at least one cover layer (41, 114, 122, 124) of the cladding component (20,..., 78), which is mounted on the escalator or moving walkway, is oriented towards the environment.
A method for localizing and/or imaging light-emitting molecules in a sample contained in a sample reservoir comprising: - illuminating the sample by a light source comprised in or connected to a microscope, - detecting light emitted by the light-emitting molecules in the sample by a detector comprised in or connected to the microscope, wherein the light-emitting molecules comprise a bright state, in which the light-emitting molecules emit light in response to being illuminated and a dark state, in which the light-emitting molecules do not emit light in response to being illuminated or in which the light-emitting molecules emit less light in response to being illuminated than in the bright state, - determining, based on the detected light, a current value of one or more parameters, wherein at least one of the parameters co-depends on photo-physical or photo-chemical properties of the light-emitting molecules other than their average photon emission rate, characterized in that a composition of a fluid in the sample reservoir is automatically adjusted to optimize the one or more parameters during the localization or imaging of the light-emitting molecules, wherein the composition of the fluid in the sample reservoir is adjusted by providing a controlled amount of a fluid in the sample reservoir by controlling a fluidic device. - illuminating the sample by a light source comprised in or connected to a microscope, - detecting light emitted by the light-emitting molecules in the sample by a detector comprised in or connected to the microscope, wherein the light-emitting molecules comprise a bright state, in which the light-emitting molecules emit light in response to being illuminated and a dark state, in which the light-emitting molecules do not emit light in response to being illuminated or in which the light-emitting molecules emit less light in response to being illuminated than in the bright state, - determining, based on the detected light, a current value of one or more parameters, wherein at least one of the parameters co-depends on photo-physical or photo-chemical properties of the light-emitting molecules other than their average photon emission rate, characterized in that a composition of a fluid in the sample reservoir is automatically adjusted to optimize the one or more parameters during the localization or imaging of the light-emitting molecules, wherein the composition of the fluid in the sample reservoir is adjusted by providing a controlled amount of a fluid in the sample reservoir by controlling a fluidic device.
An assembly for accessing coconut water of the coconut comprising: a plunger having a plunger collar perpendicularly mounted to a plunger lance; and a lid having a lid bore for receiving and housing a tip of the plunger lance; characterized by a stopper clip for holding the plunger lance suitably for preventing the tip of the plunger lance in the lid bore from puncturing a germination pore of the coconut, wherein the lid of the assembly is suitable to be placed and fixed on the germination pore of the coconut by a fixing mean. a plunger having a plunger collar perpendicularly mounted to a plunger lance; and a lid having a lid bore for receiving and housing a tip of the plunger lance; characterized by a stopper clip for holding the plunger lance suitably for preventing the tip of the plunger lance in the lid bore from puncturing a germination pore of the coconut, wherein the lid of the assembly is suitable to be placed and fixed on the germination pore of the coconut by a fixing mean.
A fireproof inner layer for an industrial furnace wall, which consists of several wall elements, which are at least partially retained on the industrial furnace wall by means of at least one retaining element each, wherein the retaining element has a base section and an end section connected to the base section and the retaining element is fastened to the industrial furnace wall in the region of the base section and has an anchor (4.1) in the region of the end section, which is positively coupled to the wall element, wherein the wall element has a back side facing the industrial furnace wall, a front side arranged opposite the back side, an end face arranged at least partially between the back side and the front side, and at least one cavity (3.1) for positively receiving the anchor (4.1), wherein the anchor (4.1) forms a positive fit with the wall element in a direction N normal to the back side, characterized in that a fireproof anchor pocket is provided, which is inserted into the cavity (3.1) and which forms a positive fit with the wall element in the direction N, wherein the retaining element is arranged inside the anchor pocket by means of at least one part of the end section and/or the anchor (4.1), and that at least one vent opening (5.8) which is directed towards the industrial furnace wall is provided, by means of which vent opening the inside of the anchor pocket can be supplied with scavenging air.