mhurhangee/ep-ind-claims huggingface dataset:
A method for the production of dimethyl ether, wherein a reaction feed containing hydrogen and carbon monoxide is formed, and the reaction feed is subjected to a dimethyl ether direct synthesis to give a raw product containing dimethyl ether, water, methanol, carbon dioxide, carbon monoxide and hydrogen, wherein the raw product or a portion thereof as a separation feed is subjected to a separation in which, during removal of at least the predominant portion of dimethyl ether, the water and the methanol and a lesser portion of the carbon monoxide and hydrogen from the separation feed, an intermediate mixture, which contains carbon dioxide, carbon monoxide and hydrogen and which is low in or free of dimethyl ether, water and methanol, is formed, wherein the separation in which the intermediate mixture is formed is performed purely by condensation and/or distillation, characterized in that the intermediate mixture in the separation is provided in liquid form, that during removal of at least the predominant portion of the carbon dioxide from the intermediate mixture or a portion thereof, and while obtaining a carbon dioxide fraction that predominantly or exclusively contains carbon dioxide, a residual mixture is formed that contains carbon monoxide and hydrogen and which is low in or free of carbon dioxide, that at least the residual mixture or a portion thereof is used in the formation of the reaction feed, and that the reaction feed is formed such that a molar ratio of hydrogen to carbon monoxide in the reaction feed is less than 2 and the reaction feed has 2 to 10 mole percent carbon dioxide.
A method for determining patient-specific blood flow characteristics, the method comprising: acquiring, for each of a plurality of individuals, a geometric model and blood flow characteristics of at least part of the individual's vascular system; executing a machine learning algorithm on the geometric model and blood flow characteristics for each of the plurality of individuals, the executing of the machine learning algorithm: comprising: for each of a plurality of points in the geometric model, for each of the plurality of individuals, creating a respective feature vector; and associating the feature vectors for each of the plurality of individuals with the blood flow characteristics at said points of the corresponding individual, and training the machine learning algorithm to predict blood flow characteristics at said plurality of points in the geometric model of an individual from the associated feature vectors; acquiring, for a patient, a geometric model of at least part of the patient's vascular system; and using the trained machine learning algorithm to determine a blood flow characteristic of the patient for at least one point in the patient's geometric model. acquiring, for each of a plurality of individuals, a geometric model and blood flow characteristics of at least part of the individual's vascular system; executing a machine learning algorithm on the geometric model and blood flow characteristics for each of the plurality of individuals, the executing of the machine learning algorithm: comprising: for each of a plurality of points in the geometric model, for each of the plurality of individuals, creating a respective feature vector; and associating the feature vectors for each of the plurality of individuals with the blood flow characteristics at said points of the corresponding individual, and training the machine learning algorithm to predict blood flow characteristics at said plurality of points in the geometric model of an individual from the associated feature vectors; comprising: for each of a plurality of points in the geometric model, for each of the plurality of individuals, creating a respective feature vector; and associating the feature vectors for each of the plurality of individuals with the blood flow characteristics at said points of the corresponding individual, and for each of a plurality of points in the geometric model, for each of the plurality of individuals, creating a respective feature vector; and associating the feature vectors for each of the plurality of individuals with the blood flow characteristics at said points of the corresponding individual, and training the machine learning algorithm to predict blood flow characteristics at said plurality of points in the geometric model of an individual from the associated feature vectors; acquiring, for a patient, a geometric model of at least part of the patient's vascular system; and using the trained machine learning algorithm to determine a blood flow characteristic of the patient for at least one point in the patient's geometric model.
A system comprising: an emitter that emits laser light towards a surface; a receiver that passively receives reflected laser light that is a portion of the laser light reflected from the surface, wherein the receiver has multiple pixels; a combiner configured to combine optical fields from each pixel in the multiple pixels into an output that supports a number of modes that is equal to a number of pixels in the multiple pixels;,and a photodetector configured to receive light from the output waveguide; characterized in that the pixels have a size that is smaller than an expected optical speckle size, wherein the expected optical speckle size corresponds to a region on the receiver where the reflected laser light has a substantially uniform spatial phase; and the combiner is coupled to individual pixels in the multiple pixels with separate input waveguides and combines the separate input waveguides into a single output waveguide, wherein a width of the single output waveguide is equal to a combined width of the separate input waveguides. an emitter that emits laser light towards a surface; a receiver that passively receives reflected laser light that is a portion of the laser light reflected from the surface, wherein the receiver has multiple pixels; a combiner configured to combine optical fields from each pixel in the multiple pixels into an output that supports a number of modes that is equal to a number of pixels in the multiple pixels;,and a photodetector configured to receive light from the output waveguide; characterized in that the pixels have a size that is smaller than an expected optical speckle size, wherein the expected optical speckle size corresponds to a region on the receiver where the reflected laser light has a substantially uniform spatial phase; and the combiner is coupled to individual pixels in the multiple pixels with separate input waveguides and combines the separate input waveguides into a single output waveguide, wherein a width of the single output waveguide is equal to a combined width of the separate input waveguides.
A method for monitoring a three-dimensional spatial area, in particular for safeguarding an automatically operating installation, comprising the steps of: - providing at least a first and a second image recording unit (14, 16) directed to the spatial area with a common viewing area, - defining at least one virtual protection zone within the common viewing area, said virtual protection zone being monitored by means of the image recording units (14, 16) such that an intrusion of a foreign object into the virtual protection zone triggers an alarm signal, - recording a first image of the spatial area by means of the first image recording unit and recording a second image of the spatial area by means of the second image recording unit, - comparing the first and second images (38, 40) in order to identify mutually disjoint image regions in the first and second images (38, 40), wherein a disjoint image region shows an object in one of the two images (38, 40), which object is not present in the respective other image or at least cannot be detected, and - generating the alarm signal as a function of the disjoint image regions and the virtual protection zone, characterized in that the alarm signal is generated when the object in the disjoint image region covers the virtual protection zone. - providing at least a first and a second image recording unit (14, 16) directed to the spatial area with a common viewing area, - defining at least one virtual protection zone within the common viewing area, said virtual protection zone being monitored by means of the image recording units (14, 16) such that an intrusion of a foreign object into the virtual protection zone triggers an alarm signal, - recording a first image of the spatial area by means of the first image recording unit and recording a second image of the spatial area by means of the second image recording unit, - comparing the first and second images (38, 40) in order to identify mutually disjoint image regions in the first and second images (38, 40), wherein a disjoint image region shows an object in one of the two images (38, 40), which object is not present in the respective other image or at least cannot be detected, and - generating the alarm signal as a function of the disjoint image regions and the virtual protection zone,
Method for manufacturing a container with at least one opening for storing cleaning agents for a toilet basket to be attached to the rim of a toilet, wherein a flat cellulose-containing fiber material is provided and at least one opening is punched into the flat cellulose-containing fiber material and the flat cellulose-containing fiber material is then formed into a three-dimensional shape by deep drawing, cold forming, cold pressing, or hydroforming.
Cooling system for gas and air, comprising a double-flow heat exchanger through which the gases flow along a first axis and the compressed air flows along a second axis, and comprising a cooling chamber for the gases adjoining each other and communicating with a cooling chamber for the compressed air in which the axis of the gas flow (Xg) is substantially orthogonal to the axis of the compressed air flow (Xa) and a coolant circuit which passes consecutively through the two cooling chambers (41, 42), characterized in that the two chambers (41, 42) are adjoined and separated from each other by a median separating wall comprising an opening allowing liquid communication between the two chambers (41,42) and in that the coolant circuit inside the exchanger has two parallel circulation branches (38,39) and follows a U-shaped path inside the exchanger from an inlet to an outlet arranged in different chambers (41,42).
A pharmaceutical composition comprising sodium iodide (NaI) and a pharmaceutically acceptable carrier, diluent, or excipient, for use in treating or preventing an ischemic injury or a reperfusion injury of tissue in a subject, wherein the pharmaceutical composition is provided to the subject parenterally or orally.
A bearing comprising: a bearing pad for supporting a rotary component; and a housing attached to or formed integrally with the bearing pad, characterized in that the housing defines a first fluid damper cavity positioned adjacent to the bearing pad; and a second fluid damper cavity spaced from the first fluid damper cavity and in restrictive flow communication with the first fluid damper cavity, the housing being configured to transfer a fluid from the first fluid damper cavity to the second fluid damper cavity in response to forces acting on the bearing pad. a bearing pad for supporting a rotary component; and a housing attached to or formed integrally with the bearing pad, characterized in that the housing defines a first fluid damper cavity positioned adjacent to the bearing pad; and a second fluid damper cavity spaced from the first fluid damper cavity and in restrictive flow communication with the first fluid damper cavity, the housing being configured to transfer a fluid from the first fluid damper cavity to the second fluid damper cavity in response to forces acting on the bearing pad. a first fluid damper cavity positioned adjacent to the bearing pad; and a second fluid damper cavity spaced from the first fluid damper cavity and in restrictive flow communication with the first fluid damper cavity, the housing being configured to transfer a fluid from the first fluid damper cavity to the second fluid damper cavity in response to forces acting on the bearing pad.
A frying unit, comprising - an oil pan which is essentially open on top, - a transport unit with which a basket is movable from a filling position into the interior of the oil pan and with which the basket is movable from the interior of the oil pan into an emptying position, wherein the oil pan is configured to accommodate multiple baskets simultaneously and the transport unit is designed in such a way that the baskets are movable independently of one another, characterized in that the oil pan comprises upper basket receptacles and lower basket receptacles in which the baskets can be accommodated, wherein the baskets can be arranged in upper basket receptacles above the oil, which oil is located in the oil pan and wherein the baskets can be arranged in lower basket receptacles in this oil. - an oil pan which is essentially open on top, - a transport unit with which a basket is movable from a filling position into the interior of the oil pan and with which the basket is movable from the interior of the oil pan into an emptying position, wherein the oil pan is configured to accommodate multiple baskets simultaneously and the transport unit is designed in such a way that the baskets are movable independently of one another,
A transfer unit in which a bed packaged by vacuuming in a vacuuming machine is able to be folded and transferred, the bed being advanced from the vacuuming machine provided at an input side of the transfer unit, characterized by comprising a centering arm configured to hold the bed from the center thereof and to press the bed towards an operation plane in order to hold the center position of the bed while changing the extension direction of the bed in the operation plane by rotating about a vertical axis.
An incubator assembly comprising: a patient support platform; a canopy situated to surround at least a portion of the patient support platform and comprising a wall apparatus and a roof, the wall apparatus extending between the patient support platform and the roof, the canopy having an interior between the patient support platform and the roof; the wall apparatus comprising a plurality of walls (36, 40, 44), at least some of which each being movable between a closed position extending between the roof and a region peripheral to the patient support platform and an open position displaced from at least one of the roof and the region peripheral to the patient support platform; and a circulation system structured to circulate fluid within the interior and comprising a fluid pump and further comprising a number of fluid guide apparatuses (166, 170, 174) each extending adjacent at least a portion of the patient support platform, at least some of the fluid guide apparatuses (166, 170, 174) each comprising a first opening structured to direct a first jet of fluid in a direction generally parallel with a wall in the closed position and a second opening structured to direct a second jet of fluid in a direction oblique to the wall in the closed position, wherein the circulation system comprises a pair of the fluid guide apparatuses that are each elongated and extend along opposite sides of the patient support platform; characterized in that the roof has formed therein a number of elongated openings (158, 162) that extend generally parallel with the pair of fluid guide apparatuses. a patient support platform; a canopy situated to surround at least a portion of the patient support platform and comprising a wall apparatus and a roof, the wall apparatus extending between the patient support platform and the roof, the canopy having an interior between the patient support platform and the roof; the wall apparatus comprising a plurality of walls (36, 40, 44), at least some of which each being movable between a closed position extending between the roof and a region peripheral to the patient support platform and an open position displaced from at least one of the roof and the region peripheral to the patient support platform; and a circulation system structured to circulate fluid within the interior and comprising a fluid pump and further comprising a number of fluid guide apparatuses (166, 170, 174) each extending adjacent at least a portion of the patient support platform, at least some of the fluid guide apparatuses (166, 170, 174) each comprising a first opening structured to direct a first jet of fluid in a direction generally parallel with a wall in the closed position and a second opening structured to direct a second jet of fluid in a direction oblique to the wall in the closed position, wherein the circulation system comprises a pair of the fluid guide apparatuses that are each elongated and extend along opposite sides of the patient support platform; characterized in that the roof has formed therein a number of elongated openings (158, 162) that extend generally parallel with the pair of fluid guide apparatuses.
Cleaner cartridge (14, 122) for cleaning a contaminated interior of a device comprising: - a one-part housing (16, 42) for receiving a treatment agent, - at least one connection piece for connecting the cleaner cartridge (14, 122) to a supply line, wherein water can be channelled, via the as end piece, into the housing (16, 42) at a defined pressure which allows spraying of a treatment agent mixture, and - at least one spray opening for spraying the treatment agent mixture, wherein the at least one spray opening is arranged on the housing in such a way that the cleaner cartridge (14, 122) is set in rotation during spraying of the treatment mixture, characterized in that the cleaner cartridge (14, 122) has more than one tangential blade (100, 102, 170) which breaks up a liquid jet exiting the at least one spray opening by deflection and generates a fluid fan, wherein the tangential blades (100, 102, 170) are arranged opposite one another in the circumference of the housing, wherein in each case one of the tangential blades (100, 102, 170) is configured in a bending angle and the tangential blade (100, 102, 170) situated opposite thereto is configured in a concave curvature or in a convex curvature. - a one-part housing (16, 42) for receiving a treatment agent, - at least one connection piece for connecting the cleaner cartridge (14, 122) to a supply line, wherein water can be channelled, via the as end piece, into the housing (16, 42) at a defined pressure which allows spraying of a treatment agent mixture, and - at least one spray opening for spraying the treatment agent mixture, wherein the at least one spray opening is arranged on the housing in such a way that the cleaner cartridge (14, 122) is set in rotation during spraying of the treatment mixture, characterized in that
A random access method, comprising: obtaining, by a terminal device, a position of the terminal device and a position of a network device; receiving, by the terminal device, a first timing advance from the network device, and determining, by the terminal device, a time adjustment value based on the position of the terminal device, the position of the network device and the first timing advance; and sending, by the terminal device, a random access preamble based on the time adjustment value and a random access channel, RACH resource configured by the network device; wherein the method is characterized by: sending, by the terminal device, an adjusted time adjustment value to the network device, wherein the adjusted time adjustment value is obtained by the terminal device by adjusting the time adjustment value based on a second timing advance sent by the network device. obtaining, by a terminal device, a position of the terminal device and a position of a network device; receiving, by the terminal device, a first timing advance from the network device, and determining, by the terminal device, a time adjustment value based on the position of the terminal device, the position of the network device and the first timing advance; and sending, by the terminal device, a random access preamble based on the time adjustment value and a random access channel, RACH resource configured by the network device; wherein the method is characterized by: sending, by the terminal device, an adjusted time adjustment value to the network device, wherein the adjusted time adjustment value is obtained by the terminal device by adjusting the time adjustment value based on a second timing advance sent by the network device.
A non-therapeutic method for inhibiting RNA silencing of a gene, comprising, contacting a cell containing an siRNA or miRNA that directs RNA silencing of a gene or contacting an organism containing an siRNA or miRNA that directs RNA silencing of a gene, with a nuclease-resistant oligonucleotide RISC inactivator comprising a nucleotide analog, wherein the RISC inactivator comprises a nucleotide sequence sufficiently complementary to a guide strand of the siRNA or miRNA sequence to inhibit RNA silencing of the gene, such that RNA silencing of the gene is inhibited.
A method, performed by a master base station, for serving, by the master base station, a terminal with at least one secondary base station in a cloud cell of the terminal in a wireless communication system, the method comprising: transmitting, to a secondary base station, an addition request message to serve the terminal with the master base station; receiving, from the secondary base station, a response message in response to the addition request message; providing a communication service to the terminal in cooperation with the secondary base station; and receiving, from the secondary base station, a request message to withdraw the secondary base station from the cloud cell of the terminal. transmitting, to a secondary base station, an addition request message to serve the terminal with the master base station; receiving, from the secondary base station, a response message in response to the addition request message; providing a communication service to the terminal in cooperation with the secondary base station; and receiving, from the secondary base station, a request message to withdraw the secondary base station from the cloud cell of the terminal.
A decorative panel mount structure for an air-conditioning apparatus, said mount structure comprising a decorative panel and a mount unit, said mount structure being for mounting said decorative panel on an underside of an air-conditioning apparatus main body which has an opening on the underside by using said mount unit, wherein the decorative panel includes a screw insertion hole, claw engagement holes formed on both sides of the screw insertion hole, wherein the mount unit is for being disposed on the underside of the decorative panel, and includes a decorative panel mount fitting having a screw engagement hole for communicating with the screw insertion hole and a claw for being fitted into the claw engagement hole and a decorative panel mount screw, and is configured to be held by the decorative panel without being dropped off when the claw of the decorative panel mount fitting is fitted into the claw engagement hole of the decorative panel and the decorative panel mount screw is engaged with the screw engagement hole of the decorative panel mount fitting with a head being oriented downward, and the decorative panel is for being mounted on an air-conditioning apparatus main body when the decorative panel mount screw held on the decorative panel by the decorative panel mount fitting is screwed into a screw fastening hole of the air-conditioning apparatus main body via the screw insertion hole of the decorative panel.