mhurhangee/ep-ind-claims huggingface dataset:
A bioreactor system, including a cell culture module comprising: a. a base including a receiving station for removably receiving a plurality of reactor vessels at respective locations; b. multiple fluid conduits; c. a clamp plate, removably connectable to the base, and including fluid connectors for forming a fluid connection between the fluid conduits and associated multiple outlet ports in the clamp plate, each outlet port corresponding to a respective vessel location in the receiving station, wherein the clamp plate comprises multiple rotary motion outputs, each output corresponding to a respective vessel location in the receiving station; d. at least one bioreactor vessel having at least one fluid port, wherein a fluid connection is established between the at least one fluid port in the vessel and a respective one of the multiple outlet ports in the clamp plate, wherein the at least one vessel is received in the receiving station, wherein the at least one bioreactor vessel comprises a top wall including a fluid transfer port, on which is removably attached a cap, wherein said fluid transfer port and attached cap project through a respective aperture in the clamp plate; and e. a drive mechanism, wherein the clamp plate is connectable to the drive mechanism for transmitting input motion from the drive mechanism into the multiple rotary motion outputs. a. a base including a receiving station for removably receiving a plurality of reactor vessels at respective locations; b. multiple fluid conduits; c. a clamp plate, removably connectable to the base, and including fluid connectors for forming a fluid connection between the fluid conduits and associated multiple outlet ports in the clamp plate, each outlet port corresponding to a respective vessel location in the receiving station, wherein the clamp plate comprises multiple rotary motion outputs, each output corresponding to a respective vessel location in the receiving station; d. at least one bioreactor vessel having at least one fluid port, wherein a fluid connection is established between the at least one fluid port in the vessel and a respective one of the multiple outlet ports in the clamp plate, wherein the at least one vessel is received in the receiving station, wherein the at least one bioreactor vessel comprises a top wall including a fluid transfer port, on which is removably attached a cap, wherein said fluid transfer port and attached cap project through a respective aperture in the clamp plate; and e. a drive mechanism, wherein the clamp plate is connectable to the drive mechanism for transmitting input motion from the drive mechanism into the multiple rotary motion outputs.
A method for controlling and recovering the adhesion of wheels (Wi) belonging to at least two controlled axles (A i) of a railway vehicle, during a wheel skidding phase, comprising the steps of: generating speed signals indicative of the angular speed (ω i) of said wheels (Wi); estimating the value of the instantaneous adhesion (μ(T j)) at the point of contact of said wheels (Wi) and the rails, using an adhesion observer (701; 1001; 1201); generating a target-slip value (δ) for the wheels (Wi) of said at least two axles (A i) by means of an optimization algorithm which processes the estimated adhesion values (μ i (T j)) and modifies said target-slip value continuously in time, with a predetermined sampling period, to maximize the average value of the adhesion of the wheels of the vehicle. generating speed signals indicative of the angular speed (ω i) of said wheels (Wi); estimating the value of the instantaneous adhesion (μ(T j)) at the point of contact of said wheels (Wi) and the rails, using an adhesion observer (701; 1001; 1201); generating a target-slip value (δ) for the wheels (Wi) of said at least two axles (A i) by means of an optimization algorithm which processes the estimated adhesion values (μ i (T j)) and modifies said target-slip value continuously in time, with a predetermined sampling period, to maximize the average value of the adhesion of the wheels of the vehicle.
Fastening element for a porous material, in particular for balsa wood, comprising a fastening head configured to receive a torque in both rotational directions around a main axis, a shank extending from the fastening head and ending in a tip at the end facing away from the fastening head, wherein the shank has an outer thread along at least a section of its extension in a direction of the main axis, for screwing the fastening element into the material, wherein the ratio of the outer diameter of the outer thread along at least a section of its extension in a direction of the main axis and the core diameter (d) of the outer thread is D/d > 2.5, wherein the outer thread has a first thread flank facing the fastening head and a second thread flank facing away from the fastening head, wherein the outer thread extends up to the tip and wherein particularly the outer diameter of the outer thread decreases towards the tip, wherein the thread profile of the second thread flank has a kink such that a first angle between the first thread flank and a first section of the second thread flank is larger between the kink and a thread base than a second angle between the first thread flank and a second section of the second thread flank between the kink and a thread tip.
Method for producing a chassis link which comprises a single-shell main body shaped from a sheet metal blank, on which bearing regions (5.1, 5.2, 5.3) are formed for attaching bearing elements by which the main body can be connected to a bodywork part or a crossmember and to a movable part of a wheel suspension of a motor vehicle, the bearing regions comprising a wheel-side bearing region (5.1) and two bodywork-side or crossmember-side bearing regions (5.2, 5.3), the main body comprising two arms (2.1, 2.2) which merge into one another and define a main-body plane and a concave edge region of the main body, the concave edge region extending from the wheel-side bearing region (5.1) up to a first (5.3) of the two bodywork-side or crossmember-side bearing regions (5.3) and being angled relative to the main-body plane, the second bodywork-side or crossmember-side bearing region (5.2) being formed as a projection (5.21) and provided with a bush, and the projection (5.21) and the arm (2.2), which comprises the first bodywork-side or crossmember-side bearing region (5.3), defining an indentation, along which the main body is angled relative to the main-body plane, in which the sheet metal blank is deformed by deep drawing, the deep drawing including pre-drawing during which the indentation is produced, and in which the indentation is trimmed and the bush is attached to the projection (5.21) once the indentation has been trimmed, wherein the sheet metal blank is pre-drawn such that the indentation is given a radius which matches the bush to be attached such that there is no need for a further forming operation in the indentation once the indentation has been trimmed, characterised in that the indentation is trimmed by means of a cutting tool which acts on the pre-drawn sheet metal blank so as to cut from above, an edge portion to be cut off from the indentation being lower than the main-body plane.
Wiper device, in particular windscreen wiper device, having a fluid-guiding unit which has at least one fastening element which is provided for fastening to a wiper arm, and having at least one channel element which is formed in one piece with the fastening element, characterized in that the fastening element and the channel element are at least partially formed from different materials.
A method for controlling a readout of a radio frequency identification unit, said method comprising the steps of: - determining propagation information (PI1, PI2, PI3) of a movable apparatus (EPV1, EPV2) either comprising said radio frequency identification unit or comprising a radio frequency identification reader, and - adapting based on said propagation information (PI1, PI2, PI3) an output power of said radio frequency identification reader for reading out said radio frequency identification unit, said propagation information (PI1, PI2) comprises speed information of a current speed (V1, V2) of said movable apparatus (EPV1, EPV2), characterized in that a first output power value correlates to a first speed range or a first speed value, and at least a second output power value larger than said first output power value correlates to at least a second speed range or at least a second speed value with at least one speed value larger than a speed value of said first speed range or said first speed value so that a residence time within an interaction area for an electromagnetic interaction between said radio frequency identification reader and said radio frequency identification unit is kept constant or within a predefined time range for allowing a reliable communication between said radio frequency identification reader and said radio frequency identification unit and a reliable identification of said radio frequency identification unit. - determining propagation information (PI1, PI2, PI3) of a movable apparatus (EPV1, EPV2) either comprising said radio frequency identification unit or comprising a radio frequency identification reader, and - adapting based on said propagation information (PI1, PI2, PI3) an output power of said radio frequency identification reader for reading out said radio frequency identification unit, said propagation information (PI1, PI2) comprises speed information of a current speed (V1, V2) of said movable apparatus (EPV1, EPV2),
An alumina catalyst support composition which comprises a precipitated alumina comprising from 3 to 10 wt% silica, said composition having a pore volume of 0.60 cc/g or greater, a median pore size ranging from 70 Å to 120 Å, a pore size distribution such that at least 90% of the total pore volume falls within the range of 20 Å to 250 Å, and a pore size distribution width of 40 Å or greater, wherein: (a) the term "pore size distribution width" is used to indicate the smallest range of pore diameters of the pores of the alumina composition in which is present two-thirds of the total pore volume of the silica containing alumina material; (b) the composition comprises at least 90 wt% silica-containing alumina; (c) the surface area of the composition ranges from 200 m 2 /g to 350 m 2 /g as measured by BET surface area analysis; (d) the pore size distribution is a unimodal pore distribution exhibiting a shoulder indicating a diminished secondary peak at a pore diameter greater than the median pore diameter and exhibits a primary peak mode at a pore diameter less than the median pore diameter; and (e) pore volume and pore size distribution properties are determined by mercury penetration porosimetry using a mercury porosimeter capable of a pressure range of atmospheric pressure to 413.7MPa (60,000psi), with a contact angle, θ = 140° with a mercury surface tension of 474 mN/m at 25°C. (a) the term "pore size distribution width" is used to indicate the smallest range of pore diameters of the pores of the alumina composition in which is present two-thirds of the total pore volume of the silica containing alumina material; (b) the composition comprises at least 90 wt% silica-containing alumina; (c) the surface area of the composition ranges from 200 m 2 /g to 350 m 2 /g as measured by BET surface area analysis; (d) the pore size distribution is a unimodal pore distribution exhibiting a shoulder indicating a diminished secondary peak at a pore diameter greater than the median pore diameter and exhibits a primary peak mode at a pore diameter less than the median pore diameter; and (e) pore volume and pore size distribution properties are determined by mercury penetration porosimetry using a mercury porosimeter capable of a pressure range of atmospheric pressure to 413.7MPa (60,000psi), with a contact angle, θ = 140° with a mercury surface tension of 474 mN/m at 25°C.
A compound of Formula a tautomer or a stereoisomeric form thereof, wherein R 1 is phenyl, napthyl, indolyl, benzothienyl, benzothiazolyl or benzofuranyl; each optionally substituted with one, two or three substituents each independently selected from the group consisting of halo and C 1-4 alkyl optionally substituted with one, two or three halo substituents; L is attached at position a or b; L is selected from the group consisting of a covalent bond, -C 1 - 6 alkanediyl- and -O-C 1-6 alkanediyl-; Y is -Q-(CH 2) m -, -CH 2 -Q-CH 2 -, -(CH 2) n -, -(CH 2) n - wherein one -CH 2 - is substituted with hydroxyl and C 1-4 alkyl, or -(CH 2) n - wherein one -CH 2 - is substituted with one hydroxyl; n represents 1, 2 or 3; m represents 1 or 2; Q is O or NR 6; R 6 is hydrogen or C 1-4 alkyl; Z is methylene or 1,2-ethanediyl, wherein methylene or 1,2-ethanediyl is optionally substituted with one or two C 1-4 alkyl substituents; R 2 is hydrogen, halo or C 1-4 alkyl; R 3 is hydrogen or C 1-4 alkyl; R 4 is hydrogen, halo or C 1-4 alkyl; X is CR 5 orN; R 5 is hydrogen or C 1-4 alkyl; or a pharmaceutically acceptable addition salt or a solvate thereof. R 1 is phenyl, napthyl, indolyl, benzothienyl, benzothiazolyl or benzofuranyl; each optionally substituted with one, two or three substituents each independently selected from the group consisting of halo and C 1-4 alkyl optionally substituted with one, two or three halo substituents; L is attached at position a or b; L is selected from the group consisting of a covalent bond, -C 1 - 6 alkanediyl- and -O-C 1-6 alkanediyl-; L is selected from the group consisting of a covalent bond, -C 1 - 6 alkanediyl- and -O-C 1-6 alkanediyl-; Y is -Q-(CH 2) m -, -CH 2 -Q-CH 2 -, -(CH 2) n -, -(CH 2) n - wherein one -CH 2 - is substituted with hydroxyl and C 1-4 alkyl, or -(CH 2) n - wherein one -CH 2 - is substituted with one hydroxyl; -(CH 2) n - wherein one -CH 2 - is substituted with hydroxyl and C 1-4 alkyl, or -(CH 2) n - wherein one -CH 2 - is substituted with one hydroxyl; n represents 1, 2 or 3; m represents 1 or 2; Q is O or NR 6; R 6 is hydrogen or C 1-4 alkyl; Z is methylene or 1,2-ethanediyl, wherein methylene or 1,2-ethanediyl is optionally substituted with one or two C 1-4 alkyl substituents; R 2 is hydrogen, halo or C 1-4 alkyl; R 3 is hydrogen or C 1-4 alkyl; R 4 is hydrogen, halo or C 1-4 alkyl; X is CR 5 orN; R 5 is hydrogen or C 1-4 alkyl;
A method for producing granular silicon by thermal decomposition of a gas containing silicon, the method comprising: passing a silicon-bearing gas upwardly through a fluidized bed of silicon particles inside a chamber within a reactor to deposit silicon from the silicon-bearing gas onto the particles; providing an obstructing member that is positioned within the chamber and that is configured to break up gas bubbles in the fluidized bed, the obstructing member defining one or more passageways; and providing a heated fluid within the one or more passageways at a temperature sufficient to transfer heat to the bed. passing a silicon-bearing gas upwardly through a fluidized bed of silicon particles inside a chamber within a reactor to deposit silicon from the silicon-bearing gas onto the particles; providing an obstructing member that is positioned within the chamber and that is configured to break up gas bubbles in the fluidized bed, the obstructing member defining one or more passageways; and providing a heated fluid within the one or more passageways at a temperature sufficient to transfer heat to the bed.
An electro-active lens, comprising a single layer of an electro-active material, the electro-active lens further comprising: a first substrate having a first index of refraction; and a second substrate having said first index of refraction, wherein the electro-active lens has an optical power in an activated state, and wherein the electro-active lens has substantially no optical power in a deactivated state, wherein said electro-active material is disposed between said first and said second substrates, and wherein said electro-active material is a cholesteric liquid crystalline material, characterized in that said electro-active material has a second index of refraction approximately equal to said first index of refraction when the electro-active lens is in said deactivated state, said first substrate is a surface relief diffractive element, and said cholesteric liquid crystalline material has components including a nematic liquid crystal and a chiral doping agent, and wherein the geometry of said surface relief diffractive element, together with the identity and relative quantities of said nematic liquid crystal and said chiral doping agent, are selected such that the electro-active lens has a diffraction efficiency in the deactivated state of less than 10%. a first substrate having a first index of refraction; and a second substrate having said first index of refraction, wherein the electro-active lens has an optical power in an activated state, and wherein the electro-active lens has substantially no optical power in a deactivated state, wherein said electro-active material is disposed between said first and said second substrates, and wherein said electro-active material is a cholesteric liquid crystalline material, characterized in that said electro-active material has a second index of refraction approximately equal to said first index of refraction when the electro-active lens is in said deactivated state, said first substrate is a surface relief diffractive element, and said cholesteric liquid crystalline material has components including a nematic liquid crystal and a chiral doping agent, and wherein the geometry of said surface relief diffractive element, together with the identity and relative quantities of said nematic liquid crystal and said chiral doping agent, are selected such that the electro-active lens has a diffraction efficiency in the deactivated state of less than 10%.
An aerospike engine configured to be connected to a liquid methane tank, and to a liquid oxygen tank, the aerospike engine comprising: a centerbody including an aerospike nozzle, an external skirt, and a combustion chamber being defined between the external skirt and the centerbody, wherein the centerbody is additively manufactured from one or more copper alloys and has a plurality of centerbody internal cooling channels, the external skirt is additively manufactured from one or more copper alloys and has a plurality of skirt internal cooling channels, wherein the aerospike is configured to supply liquid methane delivered from the liquid methane tank and liquid oxygen delivered from the liquid oxygen tank through the internal cooling channels to the combustion chamber, and wherein one of the liquid methane and liquid oxygen is used for cooling the centerbody, and the other of the liquid methane and liquid oxygen is used for cooling the external skirt. a centerbody including an aerospike nozzle, an external skirt, and a combustion chamber being defined between the external skirt and the centerbody, wherein the centerbody is additively manufactured from one or more copper alloys and has a plurality of centerbody internal cooling channels, the external skirt is additively manufactured from one or more copper alloys and has a plurality of skirt internal cooling channels, wherein the aerospike is configured to supply liquid methane delivered from the liquid methane tank and liquid oxygen delivered from the liquid oxygen tank through the internal cooling channels to the combustion chamber, and wherein one of the liquid methane and liquid oxygen is used for cooling the centerbody, and the other of the liquid methane and liquid oxygen is used for cooling the external skirt.
Busbar system for consumers, in particular for lamps, having a mounting rail and a current conducting profile which is disposed inside the mounting rail and comprises wires and leads for supplying power and/or transmitting control signals which extend in the longitudinal direction of the mounting rail and can be contacted by the consumers, wherein the mounting rail is configured toward a first side ( u) such that the consumers can be arranged and the wires or leads of the current conducting profile can be contacted by the consumers, wherein a portion (6.2) of the wires or leads of the current conducting profile for a further consumer can be contacted from a second side (o) of the mounting rail facing away from the first side ( u), wherein the mounting rail comprises two legs (2.1, 2.2) and a connecting web (2.3); characterized in that the portion (6.2) of the wires or leads of the current conducting profile for a further consumer is disposed on the connecting web (2.3) of the mounting rail.
A laundry treatment apparatus comprising a first treatment apparatus and a second treatment apparatus, wherein the first treatment apparatus comprises: a first cabinet; a first drawer drawably disposed in the first cabinet; and a first receiver disposed in the first drawer so as to contain laundry therein, wherein the second treatment apparatus comprises: a second cabinet disposed under the first cabinet so as to support the first cabinet; and a second receiver disposed in the second cabinet so as to contain laundry, wherein the laundry treatment apparatus further comprises: a cabinet connecting unit for connecting the first cabinet to the second cabinet; and a cabinet supporting unit (83, 85, 87) for preventing the first cabinet from falling down from the second cabinet when the first drawer is taken out of the first cabinet, wherein the cabinet supporting unit comprises: a support body extending from a rear end of the second cabinet in a direction opposite to a direction in which the first drawer is taken out; and a fastening member for securing the support body to a surface on which the second cabinet is mounted. a first cabinet; a first drawer drawably disposed in the first cabinet; and a first receiver disposed in the first drawer so as to contain laundry therein, a second cabinet disposed under the first cabinet so as to support the first cabinet; and a second receiver disposed in the second cabinet so as to contain laundry, a cabinet connecting unit for connecting the first cabinet to the second cabinet; and a cabinet supporting unit (83, 85, 87) for preventing the first cabinet from falling down from the second cabinet when the first drawer is taken out of the first cabinet, wherein the cabinet supporting unit comprises: a support body extending from a rear end of the second cabinet in a direction opposite to a direction in which the first drawer is taken out; and a fastening member for securing the support body to a surface on which the second cabinet is mounted. a support body extending from a rear end of the second cabinet in a direction opposite to a direction in which the first drawer is taken out; and a fastening member for securing the support body to a surface on which the second cabinet is mounted.