mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a corneal endothelial cell, the method comprising the step of sorting, from a cell population comprising a corneal endothelial cell, a cell in which at least one member selected from the group consisting of ZP4, MRGPRX3, GRIP1, GLP1R, HTR1D, and CLRN1 is expressed.
Vacuum mixing system for the mixing of polymethylmethacrylate bone cement, comprising at least one cartridge (4, 54) with an internal space, which can be evacuated, for mixing of the bone cement, a pump (18, 68) for generation of a negative pressure, and a connecting conduit (12, 62) connecting the internal space of the at least one cartridge (4, 54) to the pump (18, 68) for generation of a negative pressure, characterised in that the vacuum mixing system comprises a tensioned restoring element (28, 78) for driving the pump (18, 68) that is or can be connected to the pump (18, 68) and in which energy for at least one pumping process of the pump (18, 68) is stored, whereby a consumption of energy from the tensioned restoring element (28, 78) by the pump (18, 68) during the pumping process allows a negative pressure to be generated such that the negative pressure can be used to evacuate gas from the internal space of the at least one cartridge (4, 54) through the connecting conduit (12, 62).
A mechanical refining system for refining lignocellulosic material having opposing refiner plates (128, 130), at least one of which rotates, an inlet for introduction of the material being provided in one of the opposing refiner plates, from which inlet the material is able to move radially outward through a gap between the plates due to centrifugal forces created by the rotation so as to be discharged from the gap at a periphery of the opposing refiner plates, one of the refiner plates (52, 84, 100, 114) comprising a refining surface including bars (54, 86, 92, 102) and grooves (56, 104), wherein the bars (54, 86, 92, 102) each have a leading edge (60, 96, 108) between a leading face (58, 88, 94, 106) and an upper ridge (62, 98, 110, 117) and a trailing edge between the upper ridge and a trailing face, wherein the leading face (58, 88, 94, 106) is formed by a sidewall of the bar facing a direction of relative rotation of the opposing plate (26, 82), wherein, the leading edge (60, 96, 108) has an interior angle (61, a) between the leading face and the upper ridge of between 150 degrees and 175 degrees, and the trailing edge has an interior angle (e) between the trailing face and the upper ridge of between 80 and 140 degrees.
Electronic device for a power tool, comprising at least one electronic unit (18a; 18c; 18d; 18e; 18f; 18g), and comprising at least one fluid cooling unit (30a; 30c; 30d; 30e; 30f; 30g) for cooling the electronic unit (18a; 18c; 18d; 18e; 18f; 18g) by means of a fluid, wherein the electronic unit (18a; 18c; 18d; 18e; 18f; 18g) is arranged at least largely, in particular entirely, outside of a fluid flow path (32a; 32c; 32d; 32e; 32f; 32g) of the fluid cooling unit (30a; 30c; 30d; 30e; 30f; 30g), characterized in that the fluid cooling unit (30a; 30c; 30d; 30e; 30f; 30g) comprises at least one fluid cooling element (66a; 66c; 66d; 66e; 66f; 66g) against which the electronic unit (18a; 18c; 18d; 18e; 18f; 18g) bears, at least partially, wherein the fluid cooling element (66a; 66c; 66d; 66e; 66f; 66g) is at least partially, in particular at least in a region against which the electronic unit (18a; 18c; 18d; 18e; 18f; 18g) bears, made of a material having a thermal conductivity of at least 10 W/(m·K).
A solid preparation comprising the following part and part: a part containing coated particles in which the particles containing pioglitazone or a salt thereof are coated with lactose; and a part containing glimepiride. a part containing coated particles in which the particles containing pioglitazone or a salt thereof are coated with lactose; and a part containing glimepiride.
A robotic liquid handling system for performing a liquid handling task, comprising: - at least one robotic arm; - a controller configured to control the robotic arm to position and operate the robotic arm in a workspace of the robotic liquid handling system; wherein the controller is configured to, as part of the liquid handling task, control the robotic arm to open a reagent reservoir, wherein the reagent reservoir has an opening which is sealed by a foil, wherein the controller is configured to control the robotic arm to open the foil by controlling the robotic arm to: - using a cutting tip held by the robotic arm, cut at least two flaps in the foil, wherein said cutting of the at least two flaps comprises piercing the foil with the cutting tip at an entry position and from the entry position moving the cutting tip laterally with the cutting tip inserted into the opening at a first depth past a height of the foil; - using a blunt protrusion held by the robotic arm, push the at least two flaps downwards into the reagent reservoir to clear at least part of the opening of the reagent reservoir. - at least one robotic arm; - a controller configured to control the robotic arm to position and operate the robotic arm in a workspace of the robotic liquid handling system; - using a cutting tip held by the robotic arm, cut at least two flaps in the foil, wherein said cutting of the at least two flaps comprises piercing the foil with the cutting tip at an entry position and from the entry position moving the cutting tip laterally with the cutting tip inserted into the opening at a first depth past a height of the foil; - using a blunt protrusion held by the robotic arm, push the at least two flaps downwards into the reagent reservoir to clear at least part of the opening of the reagent reservoir.
A method for dynamometer testing of a vehicle in a vehicle dynamometer system comprising at least one dynamometer test unit (110, 111) having a power source, the power source comprising an output shaft arranged for rotation with a vehicle wheel shaft (105, 106), the system further comprising an adapter plate, said adapter plate comprising means for allowing fixed connection of the adapter plate to a wheel hub of said vehicle wheel shaft (105, 106), and said adapter plate further comprising means for allowing fixed connection to the output shaft of said test unit (110, 111) to thereby rigidly couple the output shaft of the dynamometer test unit (110, 111) to said wheel shaft (105, 106), comprising the steps of: - relocating said vehicle using said adapter plate, wherein said adapter plate is designed such that, when rigidly coupled to said wheel hub but disconnected from said dynamometer test unit (110, 111), said adapter plate supports the vehicle, wherein the adapter plate is coupled to the wheel shaft (205, 206) in a rotationally fixed manner so that during testing the adapter plate rotates with the wheel shaft (205, 206), and wherein the adapter plate comprises an outer circumference for contacting the surface on which a vehicle is present when supporting said vehicle, characterized in that: during testing, the weight of the vehicle is supported by the dynamometer test unit (110, 111) and the height of the output shaft is controlled such that the adapter plate rotates freely without touching ground. - relocating said vehicle using said adapter plate, wherein said adapter plate is designed such that, when rigidly coupled to said wheel hub but disconnected from said dynamometer test unit (110, 111), said adapter plate supports the vehicle, wherein the adapter plate is coupled to the wheel shaft (205, 206) in a rotationally fixed manner so that during testing the adapter plate rotates with the wheel shaft (205, 206), and wherein the adapter plate comprises an outer circumference for contacting the surface on which a vehicle is present when supporting said vehicle, characterized in that: during testing, the weight of the vehicle is supported by the dynamometer test unit (110, 111) and the height of the output shaft is controlled such that the adapter plate rotates freely without touching ground.
A C-pillar assembly for a vehicle, comprising a rear door, a rear quarter trim, and a sealing member disposed between the rear door and the rear quarter trim, wherein, the rear door comprises a rear door fixed window connected to a rear door inner panel and a rear door frame, and a glass run channel connected to the rear door fixed window, wherein, the rear door fixed window comprises: an encapsulation, an inner side of which being connected with the rear door frame; a rear door fixed window glass, fixed to an outer side of the encapsulation; characterized in that it further comprises an insert, at least partially inserted in the encapsulation and connected to the glass run channel to connect the glass run channel with the rear door fixed window and in that the insert comprises: a first portion extending out from the encapsulation to connect with the glass run channel, and a second portion inserted in the encapsulation. an encapsulation, an inner side of which being connected with the rear door frame; a rear door fixed window glass, fixed to an outer side of the encapsulation; characterized in that it further comprises an insert, at least partially inserted in the encapsulation and connected to the glass run channel to connect the glass run channel with the rear door fixed window and in that the insert comprises: a first portion extending out from the encapsulation to connect with the glass run channel, and a second portion inserted in the encapsulation.
A method to query a plurality of different target nucleic acids in a single run by multiplex ligation-dependent probe amplification comprising: (a) providing a sample tissue to query at least 100 different target nucleic acids, wherein the target nucleic acids are genomic DNA; (b) providing a plurality of different probe sets for each of the at least 100 different target nucleic acids, wherein each probe set comprises: - a first locus specific probe consisting of a first adapter sequence and a first target specific portion; and - a second locus specific probe consisting of a second adapter sequence, and a second target specific portion adjacent to the first target specific portion; (c) hybridizing the plurality of different probe sets to the at least 100 different target sequences to form at least 100 hybridization complexes; (d) ligating, by use of a ligase, the at least 100 hybridization complexes to form at least 100 different ligated probes; (e) amplifying the at least 100 different ligated probes to form at least 100 different amplicons, wherein the amplifying step is carried out with a first universal primer comprising a region complementary to the first adapter sequence and a second universal primer comprising a region complementary to the second adapter sequence; and (f) detecting the at least 100 different amplicons in a detection system, independently of the length, by sequencing each of the at least 100 different amplicons, wherein the probe sets do not have a stuffer sequence as means for differentiating amplified probe products. (a) providing a sample tissue to query at least 100 different target nucleic acids, wherein the target nucleic acids are genomic DNA; (b) providing a plurality of different probe sets for each of the at least 100 different target nucleic acids, wherein each probe set comprises: - a first locus specific probe consisting of a first adapter sequence and a first target specific portion; and - a second locus specific probe consisting of a second adapter sequence, and a second target specific portion adjacent to the first target specific portion; - a first locus specific probe consisting of a first adapter sequence and a first target specific portion; and - a second locus specific probe consisting of a second adapter sequence, and a second target specific portion adjacent to the first target specific portion; (c) hybridizing the plurality of different probe sets to the at least 100 different target sequences to form at least 100 hybridization complexes; (d) ligating, by use of a ligase, the at least 100 hybridization complexes to form at least 100 different ligated probes; (e) amplifying the at least 100 different ligated probes to form at least 100 different amplicons, wherein the amplifying step is carried out with a first universal primer comprising a region complementary to the first adapter sequence and a second universal primer comprising a region complementary to the second adapter sequence; and (f) detecting the at least 100 different amplicons in a detection system, independently of the length, by sequencing each of the at least 100 different amplicons,
A replaceable liquid storage device that is connectable to an atomizing assembly, the interior of the liquid storage device being configured to store e-liquid, wherein the liquid storage device has an open end on which are provided a seal having a liquid outlet and a rotary component which abuts the seal; wherein a connection ring is fixedly fitted onto the open end, the rotary component is received in the connection ring so as to be capable of relative rotation, wherein on an inner wall of the connection ring guide slots for engaging with protruding engagers of a connection part of the atomizing assembly are provided so that when the liquid storage device is not connected to the atomizing assembly, the rotary component blocks the liquid outlet so as to seal e-liquid inside; when the liquid storage device is connected to the atomizing assembly, the rotary component can rotate and open the liquid outlet.
A device for deploying flexible sheet materials onto areas to be protected, comprising a universal coupling to be connected to a traction machine, a forwarder or a tractor, at least one cartridge (42, 43) with a flexible sheet material, a spreader and a driven roll for rolling up or unrolling the flexible sheet material, wherein the device further comprises means for unrolling an elongated heavy material, means for cutting the flexible sheet material and for cutting the elongated heavy material, so that the deployed flexible sheet material is provided with a weighting.
A fluid pressure regulation device including a housing defining a fluid chamber, and a piston located within said chamber and dividing said chamber into first and second regions, said first region being generally enclosed and bounded by said housing and piston, and wherein said piston is adapted to move within said chamber as a result of pressure difference in the first and second regions, and including a first fluid flow path through said piston allowing flow of fluid between said first and second regions, said first flow path being formed as a bore through said piston forming a by-pass orifice, and a damping orifice located in said housing to provide a second flow path from said first region, wherein a throttle plug is located within said first and/or second flow paths, characterised in that said throttle plug is formed of a material having a thermal expansion coefficient of more than 50 x 10 -6 m/m/K.
A fiber-reinforced thermoplastic resin kneading method for obtaining a fiber-reinforced thermoplastic resin by using a plasticizing apparatus, the plasticizing apparatus including a cylinder and a screw inserted into the cylinder, the method comprising: supplying a thermoplastic resin and reinforcing fibers (28, 29) to the cylinder and rotating the screw, wherein the reinforcing fibers (28, 29) are supplied from a plurality of different locations (13A, 14A) in the cylinder when the reinforcing fibers (28, 29) are supplied into the cylinder, characterized in that the plasticizing apparatus is configured such that a clearance between a bore (17a, 17b) of the cylinder and the crest of the screw becomes larger on a downstream side than on an upstream side from a predetermined cylinder position, wherein at least one of the plurality of locations is located downstream of the predetermined cylinder position, and wherein the reinforcing fibers are supplied into the cylinder from the at least one of the plurality of locations downstream of the predetermined cylinder position. supplying a thermoplastic resin and reinforcing fibers (28, 29) to the cylinder and rotating the screw, wherein the reinforcing fibers (28, 29) are supplied from a plurality of different locations (13A, 14A) in the cylinder when the reinforcing fibers (28, 29) are supplied into the cylinder, characterized in that the plasticizing apparatus is configured such that a clearance between a bore (17a, 17b) of the cylinder and the crest of the screw becomes larger on a downstream side than on an upstream side from a predetermined cylinder position, wherein at least one of the plurality of locations is located downstream of the predetermined cylinder position, and wherein the reinforcing fibers are supplied into the cylinder from the at least one of the plurality of locations downstream of the predetermined cylinder position.
A dual stage vehicle attitude control system comprising: a first attitude control module having at least one momentum wheel (125A, 125n) arranged to provide vehicle attitude control; a second attitude control module having reaction wheels (132A, 132m) arranged in a pyramid configuration to provide vehicle attitude control along at least one control axis; and a controller connected to the first attitude control module and the second attitude control module, the controller being configured to coordinate actuation of the first attitude control module and the second attitude control module to rotate the vehicle in at least one of three axes of the vehicle; characterized in that: the first attitude control module has at least two momentum wheels (125A, 125n) arranged to provide zero momentum vehicle attitude control, each momentum wheel comprising a limited travel two axis gimbal that pivots the momentum wheel along two of the three axes of a vehicle; and the control axis of the second attitude control module is common with a control axis of the at least two momentum wheels (125A, 125n). a first attitude control module having at least one momentum wheel (125A, 125n) arranged to provide vehicle attitude control; a second attitude control module having reaction wheels (132A, 132m) arranged in a pyramid configuration to provide vehicle attitude control along at least one control axis; and a controller connected to the first attitude control module and the second attitude control module, the controller being configured to coordinate actuation of the first attitude control module and the second attitude control module to rotate the vehicle in at least one of three axes of the vehicle; characterized in that: the first attitude control module has at least two momentum wheels (125A, 125n) arranged to provide zero momentum vehicle attitude control, each momentum wheel comprising a limited travel two axis gimbal that pivots the momentum wheel along two of the three axes of a vehicle; and the control axis of the second attitude control module is common with a control axis of the at least two momentum wheels (125A, 125n). the first attitude control module has at least two momentum wheels (125A, 125n) arranged to provide zero momentum vehicle attitude control, each momentum wheel comprising a limited travel two axis gimbal that pivots the momentum wheel along two of the three axes of a vehicle; and the control axis of the second attitude control module is common with a control axis of the at least two momentum wheels (125A, 125n).
A method of providing integrated access to both structured and unstructured data, the method comprising: receiving a query directed toward a combination of structured and unstructured data; parsing the query into a first portion directed toward structured data and a second portion directed toward unstructured data; retrieving structured data from a database of structured data in accordance with the received query using the first query portion; retrieving unstructured data from a data store of unstructured data based on the retrieved structured data; streaming the retrieved unstructured data through a processing device in a computing system other than a main processor for the system; controlling the processing device to perform a query-specified data processing operation in accordance with the second query portion; and performing the query-specified data processing operation on the streaming unstructured data using the processing device. receiving a query directed toward a combination of structured and unstructured data; parsing the query into a first portion directed toward structured data and a second portion directed toward unstructured data; retrieving structured data from a database of structured data in accordance with the received query using the first query portion; retrieving unstructured data from a data store of unstructured data based on the retrieved structured data; streaming the retrieved unstructured data through a processing device in a computing system other than a main processor for the system; controlling the processing device to perform a query-specified data processing operation in accordance with the second query portion; and performing the query-specified data processing operation on the streaming unstructured data using the processing device.
Steamer accessory for steam-heating and/or steaming foods in a container, the steamer accessory comprising a water reservoir communicating with the outside via a filling orifice, the steamer accessory comprising a steam generator comprising a steam production chamber connected to at least one steam distribution outlet provided in a lower part of the steam generator, the water reservoir communicating with the steam production chamber via a water supply inlet, characterised in that the steam production chamber communicates with at least one steam evacuation outlet arranged higher than the water supply inlet, in that the steam production chamber is confined above the steam evacuation outlet(s), and in that the or each steam evacuation outlet communicates via a duct with the or one of the steam distribution outlet(s), such that the steam produced in the steam production chamber is evacuated via the steam evacuation outlet(s) to reach the steam distribution outlet(s) by descending through the duct(s).
A single-use surgical instrument together with a scanning device (23a, 23b, 124), said surgical instrument comprising: a housing, an electrical connector and a treatment component, at least one of the housing, the electrical connector and the treatment component being configured to accept indicia printed thereon; and a reactive ink present on at least one portion of the surgical instrument in the form of indicia (18a, 18b) readable by the scanning device (23a, 23b, 124), the ink including a protein-based composition reactivateable with a sterilization solution having an enzyme-based composition such that, upon a sterilization of the instrument with the solution, the reactive ink reacts with the solution such that it can no longer be read by the scanning device, wherein the reactive ink is not dissolvable when in contact with water, saline solution and blood. a housing, an electrical connector and a treatment component, at least one of the housing, the electrical connector and the treatment component being configured to accept indicia printed thereon; and a reactive ink present on at least one portion of the surgical instrument in the form of indicia (18a, 18b) readable by the scanning device (23a, 23b, 124), the ink including a protein-based composition reactivateable with a sterilization solution having an enzyme-based composition such that, upon a sterilization of the instrument with the solution, the reactive ink reacts with the solution such that it can no longer be read by the scanning device, wherein the reactive ink is not dissolvable when in contact with water, saline solution and blood.