mhurhangee/ep-ind-claims huggingface dataset:
Process for separating a gas mixture comprising the steps of cooling the mixture, feeding the cooled mixture or a stream therefrom to a fractionating column, expanding at least a part of the column overhead product in a spun flow in a nozzle, the flow being separated into a flow enriched with components heavier than methane and a flow depleted of said components, heating (19, 20) the depleted flow at the expense of cooling the mixture, compressing the heated depleted gas flow in a compressor, characterized in that the heated and compressed depleted gas flow is cooled in an air cooling apparatus, a part of the compressed and cooled depleted gas flow is used as an outgoing product, the other part is additionally cooled, expanded, and fed to the column and/or blended with the gaseous column overhead product upstream of the nozzle.
Solar energy concentrating roof module, comprising a support device, a reflector device arranged on the support device, the reflector device having a concave, parabolic cylindric upper surface, the parabolic cylindric upper surface having a focal axis, at least one pipe retaining device, configured to retain a straight pipe portion in alignment with the focal axis, the roof module having a first and a second longitudinal edges and a first and a second transversal edges, the roof module further comprising connection profiles (222, 224) provided at the longitudinal edges (212, 214), each connection profile (222, 224) enabling connection to a longitudinal edge of another roof module characterised in that connection profiles (226, 228) are also provided at the transversal edges (216, 218), and in that all connection profiles, both at longitudinal and transversal edges, are arranged to provide waterproof connections between the roof modules. a support device, a reflector device arranged on the support device, the reflector device having a concave, parabolic cylindric upper surface, the parabolic cylindric upper surface having a focal axis, at least one pipe retaining device, configured to retain a straight pipe portion in alignment with the focal axis, the roof module having a first and a second longitudinal edges and a first and a second transversal edges, the roof module further comprising connection profiles (222, 224) provided at the longitudinal edges (212, 214), each connection profile (222, 224) enabling connection to a longitudinal edge of another roof module characterised in that connection profiles (226, 228) are also provided at the transversal edges (216, 218), and in that all connection profiles, both at longitudinal and transversal edges, are arranged to provide waterproof connections between the roof modules.
An implant configured to fit at or near a bone defect to promote bone growth, the implant comprising an oxysterol uniformly disposed in an acellular tissue matrix, wherein the acellular tissue matrix is crosslinked porcine collagen and comprises from about 5 wt. % to about 25 wt. % of the crosslinked acellular porcine collagen and from about 0.01 wt. % to about 90 wt. % oxysterol, wherein the oxysterol is comprised in the acellular tissue matrix in in an amount of 10 to 240 mg/cc, and wherein the oxysterol comprises (3S, 5S, 6S, 8R, 9S, 10R, 13S, 14S, 17S) 17-( -2-hydroxyoctan-2-yl)-10, 13-dimethylhexadecahydro-lH-cyclopenta[a]phenanthrene-3, 6-diol (Oxyl33) monohydrate. wherein the oxysterol is comprised in the acellular tissue matrix in in an amount of 10 to 240 mg/cc, and wherein the oxysterol comprises (3S, 5S, 6S, 8R, 9S, 10R, 13S, 14S, 17S) 17-( -2-hydroxyoctan-2-yl)-10, 13-dimethylhexadecahydro-lH-cyclopenta[a]phenanthrene-3, 6-diol (Oxyl33) monohydrate.
A turbomachine, comprising: an impeller rotatably disposed adjacent a shroud having a shroud surface, said impeller having a plurality of impeller blades, each of said impeller blades having: a shroud edge adjacent said shroud surface; and a trailing edge; and a diffuser located downstream of said impeller, said diffuser including a plurality of diffuser blades forming a plurality of diffuser passageways, each of the plurality of diffuser blades having a leading edge, the turbomachine being characterised in that said leading edge includes an upper leg that extends upstream along said shroud surface, said upper legs defining a plurality of elongate recesses extending therebetween; wherein said elongate recesses extend downstream along said shroud surface and into said diffuser, said recesses configured to guide a portion of a working fluid in said turbomachine. an impeller rotatably disposed adjacent a shroud having a shroud surface, said impeller having a plurality of impeller blades, each of said impeller blades having: a shroud edge adjacent said shroud surface; and a trailing edge; and a shroud edge adjacent said shroud surface; and a trailing edge; and a diffuser located downstream of said impeller, said diffuser including a plurality of diffuser blades forming a plurality of diffuser passageways, each of the plurality of diffuser blades having a leading edge, the turbomachine being characterised in that said leading edge includes an upper leg that extends upstream along said shroud surface, said upper legs defining a plurality of elongate recesses extending therebetween; wherein said elongate recesses extend downstream along said shroud surface and into said diffuser, said recesses configured to guide a portion of a working fluid in said turbomachine.
An operating status warning device for the optical and/or acoustic display of at least one operating state or of several, different operating states, of a technical device such as a machine, an installation, a vehicle or the like with at least one optical and/or acoustic warning element, wherein at least one setting unit is provided for setting and/or adjusting at least one operating parameter of the warning element such as light color, color intensity, transparency, sound level, melody, tone sequence or the like, wherein the setting unit comprises at least one interface (6, 16) for receiving the setting information of the operating parameter, wherein the interface of the setting unit is designed as a wave-receiver for receiving waves as wireless setting information of the operating parameters, characterized in that the wave-receiver (6, 16) is designed as a lightwave receiver (6, 16) for the optical reception of visual light waves.
An electronic device comprising: a camera module comprising an image sensor configured to acquire image data of an object and to generate a signal for extracting distance information of a distance between the electronic device and the object, a memory module; and a processor operatively coupled with the camera module and the memory module, wherein the processor is configured to: acquire image data of the object from the camera module, extract distance information based on the generated signal, and characterized in that the processor is further configured to select, among a plurality of image filters of various shapes, an image filter for the object based on the shape of the object, wherein the shape of the object is determined based on the distance information and wherein each of said plurality of image filters is either configured to emphasize the object in the acquired image data by blurring the background or by brightening the object with respect to the background, and apply the selected image filter to the acquired image data to generate a new image and display the new image. a camera module comprising an image sensor configured to acquire image data of an object and to generate a signal for extracting distance information of a distance between the electronic device and the object, a memory module; and a processor operatively coupled with the camera module and the memory module, wherein the processor is configured to: acquire image data of the object from the camera module, extract distance information based on the generated signal, and characterized in that the processor is further configured to select, among a plurality of image filters of various shapes, an image filter for the object based on the shape of the object, wherein the shape of the object is determined based on the distance information and wherein each of said plurality of image filters is either configured to emphasize the object in the acquired image data by blurring the background or by brightening the object with respect to the background, and apply the selected image filter to the acquired image data to generate a new image and display the new image. acquire image data of the object from the camera module, extract distance information based on the generated signal, and characterized in that the processor is further configured to select, among a plurality of image filters of various shapes, an image filter for the object based on the shape of the object, wherein the shape of the object is determined based on the distance information and wherein each of said plurality of image filters is either configured to emphasize the object in the acquired image data by blurring the background or by brightening the object with respect to the background, and apply the selected image filter to the acquired image data to generate a new image and display the new image.
A method for producing a dietetic or pharmaceutical preparation, comprising the following steps: a) ground tartary buckwheat is mixed with a protein solution, which is selected from the group consisting of cow milk, buttermilk, camel milk, mare milk, goat milk, donkey milk, lama milk, reindeer milk, water buffalo milk, sheep milk, soy milk, coconut milk, and lactose-free milk of the above milk types, in a weight ratio of protein solution to buckwheat from 4 to 20, prior to the addition of the buckwheat the protein solution being heated to a temperature of at least 60 °C and being held on this temperature till the addition of the buckwheat, b) the mixture of step a) is held for a time of at least 10 to 1000 s on a temperature of at least 80 °C, and c) subsequently to step b), the mixture is cooled down to a temperature below 45 °C. a) ground tartary buckwheat is mixed with a protein solution, which is selected from the group consisting of cow milk, buttermilk, camel milk, mare milk, goat milk, donkey milk, lama milk, reindeer milk, water buffalo milk, sheep milk, soy milk, coconut milk, and lactose-free milk of the above milk types, in a weight ratio of protein solution to buckwheat from 4 to 20, prior to the addition of the buckwheat the protein solution being heated to a temperature of at least 60 °C and being held on this temperature till the addition of the buckwheat, b) the mixture of step a) is held for a time of at least 10 to 1000 s on a temperature of at least 80 °C, and c) subsequently to step b), the mixture is cooled down to a temperature below 45 °C.
A seal assembly for a nested dual drill pipe, comprising: a female seal assembly at one longitudinal end of tube and a male seal assembly at the other longitudinal end of the tube, the tube being nested in a drill pipe segment having a tapered thread assembly guide (12, 14) at each longitudinal end thereof; wherein the female seal assembly includes a larger internal diameter portion at an open end thereof, a taper (18E1) adjacent to the larger internal diameter portion, and a smaller internal diameter portion adjacent to the taper (18E1); wherein the male seal assembly includes a smaller external diameter portion at an open end thereof, a seal area adjacent to the smaller external diameter portion, and a larger external diameter portion adjacent to the seal area, the seal area including a seal ring; and wherein the larger internal diameter portion and the smaller external diameter portion have diameters selected to prevent contact with each other during assembly of two adjacent drill pipe segments at a maximum axial misalignment allowed upon initial engagement of the tapered threads on the assembly guides (12, 14) on adjacent drill pipe segments prior to the tapered threads becoming fully engaged, and wherein the larger and smaller internal diameter portions and the larger and smaller external diameter portions have diameters selected to enable free longitudinal movement of the male seal assembly into the female seal assembly while maintaining the seal ring in the seal area fully energized. a female seal assembly at one longitudinal end of tube and a male seal assembly at the other longitudinal end of the tube, the tube being nested in a drill pipe segment having a tapered thread assembly guide (12, 14) at each longitudinal end thereof; wherein the female seal assembly includes a larger internal diameter portion at an open end thereof, a taper (18E1) adjacent to the larger internal diameter portion, and a smaller internal diameter portion adjacent to the taper (18E1); wherein the male seal assembly includes a smaller external diameter portion at an open end thereof, a seal area adjacent to the smaller external diameter portion, and a larger external diameter portion adjacent to the seal area, the seal area including a seal ring; and wherein the larger internal diameter portion and the smaller external diameter portion have diameters selected to prevent contact with each other during assembly of two adjacent drill pipe segments at a maximum axial misalignment allowed upon initial engagement of the tapered threads on the assembly guides (12, 14) on adjacent drill pipe segments prior to the tapered threads becoming fully engaged, and wherein the larger and smaller internal diameter portions and the larger and smaller external diameter portions have diameters selected to enable free longitudinal movement of the male seal assembly into the female seal assembly while maintaining the seal ring in the seal area fully energized.
A liquid ejection head capable of ejecting a liquid through an ejection port, the liquid ejection head comprising: a liquid chamber configured to contain the liquid; and a liquid supply section configured to allow the liquid to be supplied from a liquid container to the liquid chamber, characterized in that a negative pressure in the liquid chamber is made by a negative pressure generating section (33-1, 33-2, 31) of the liquid container, the liquid container being detachable to/from the liquid ejection head, and the liquid ejection head comprises an opening configured to communicate with the liquid chamber and to enable at least a gas inside the liquid chamber to flow out through the opening, and the opening is closed in a case where the liquid in the liquid chamber is ejected from the ejection port. a liquid chamber configured to contain the liquid; and a liquid supply section configured to allow the liquid to be supplied from a liquid container to the liquid chamber, characterized in that a negative pressure in the liquid chamber is made by a negative pressure generating section (33-1, 33-2, 31) of the liquid container, the liquid container being detachable to/from the liquid ejection head, and the liquid ejection head comprises an opening configured to communicate with the liquid chamber and to enable at least a gas inside the liquid chamber to flow out through the opening, and the opening is closed in a case where the liquid in the liquid chamber is ejected from the ejection port.
A pharmaceutical composition comprising an anti-EREG antagonist and an anti-TGFα antagonist as active ingredients, wherein the anti-EREG antagonist is an anti-EREG antibody and wherein the anti-TGFα antagonist is an anti-TGFα antibody.
An air vehicle comprising a GPS receiver having messaging capability, the GPS receiver configured to process a command and control C2 message when alternative communications are required as a result of a primary communications system failure; and avionics for taking a course of action according to instructions in the C2 message received by the GPS receiver; wherein the avionics is arranged to transmit a discrete transponder code indicating that alternative communications are required.
A magnetic toner comprising a magnetic toner particle that includes a binder resin, a magnetic body, and a crystalline polyester, wherein the binder resin includes an amorphous polyester, the crystalline polyester includes a monomer unit derived from an aliphatic diol having a carbon number of C2 to C12, and/or a monomer unit derived from an aliphatic dicarboxylic acid having a carbon number of C2 to C12, a dielectric loss tangent of the magnetic toner at 100 kHz is 1.0 × 10 -2 or more, the dielectric loss tangent being measured as described in the description, in cross-sectional observation of the magnetic toner particle using a transmission electron microscope TEM, a variation coefficient CV3 of an occupied area ratio of the magnetic body when a cross section of the magnetic toner particle is divided by a square grid having a side of 0.8 μm is from 30.0% to 80.0%, the variation coefficient CV3 being measured as described in the description, and assuming that a storage elastic modulus at 40°C is taken as E' [Pa] and a storage elastic modulus at 85°C is taken as E' [Pa], the storage elastic moduli being obtained in a powder dynamic viscoelasticity measurement of the magnetic toner, the storage elastic modulus at 40°C and the storage elastic modulus at 85°C being measured as described in the description, the following formulas and are satisfied: E ′ 85 ≤ 5.5 × 10 9 E ′ 40 − E ′ 85 × 100 / E ′ 40 ≥ 30 the binder resin includes an amorphous polyester, the crystalline polyester includes a monomer unit derived from an aliphatic diol having a carbon number of C2 to C12, and/or a monomer unit derived from an aliphatic dicarboxylic acid having a carbon number of C2 to C12, a dielectric loss tangent of the magnetic toner at 100 kHz is 1.0 × 10 -2 or more, the dielectric loss tangent being measured as described in the description, in cross-sectional observation of the magnetic toner particle using a transmission electron microscope TEM, a variation coefficient CV3 of an occupied area ratio of the magnetic body when a cross section of the magnetic toner particle is divided by a square grid having a side of 0.8 μm is from 30.0% to 80.0%, the variation coefficient CV3 being measured as described in the description, and assuming that a storage elastic modulus at 40°C is taken as E' [Pa] and a storage elastic modulus at 85°C is taken as E' [Pa], the storage elastic moduli being obtained in a powder dynamic viscoelasticity measurement of the magnetic toner, the storage elastic modulus at 40°C and the storage elastic modulus at 85°C being measured as described in the description, the following formulas and are satisfied: E ′ 85 ≤ 5.5 × 10 9 E ′ 40 − E ′ 85 × 100 / E ′ 40 ≥ 30
A liposome suspension for use in a method of treating upper tract urothelial carcinoma (UTUC), comprising: A. placing a balloon catheter with a working channel, via retrograde or antegrade ureteral access into the ureter and/or renal pelvis; B. inflating the catheter balloon such that the ureter is temporarily obstructed; C. instilling the liposome suspension into the working channel of the catheter; and D. allowing the instilled liposome suspension to dwell in the ureter and/or renal pelvis for a period of time that is sufficient to allow at least a portion of the liposomes in the liposome suspension to adhere to the urothelial wall, wherein the liposomes in the liposome suspension comprise either: (i) (a) paclitaxel, (b) dimyristoyl phosphatidylcholine (DMPC), and (c) dimyristoyl phosphatidylglycerol sodium (DMPG), wherein the weight ratios of a: b: care 1: (1 - 3.8): (0.2 - 1.5); or (ii) (a) cisplatin, (b) dimyristoyl phosphatidylcholine (DMPC), and (c) dimyristoyl phosphatidylglycerol sodium (DMPG), wherein the weight ratios of a: b: c are 1: (2.5 - 4.5): (1.5 - 2.5); or (iii) (a) cisplatin, (b) dimyristoyl phosphatidylcholine (DMPC), (c) dimyristoyl phosphatidylglycerol sodium (DMPG), and (d) cholesterol, wherein the weight ratios of a: b: c: d are 1: (2.5 - 4.5): (1.5 - 2.5): (0.5 - 1). A. placing a balloon catheter with a working channel, via retrograde or antegrade ureteral access into the ureter and/or renal pelvis; B. inflating the catheter balloon such that the ureter is temporarily obstructed; C. instilling the liposome suspension into the working channel of the catheter; and D. allowing the instilled liposome suspension to dwell in the ureter and/or renal pelvis for a period of time that is sufficient to allow at least a portion of the liposomes in the liposome suspension to adhere to the urothelial wall, (i) (a) paclitaxel, (b) dimyristoyl phosphatidylcholine (DMPC), and (c) dimyristoyl phosphatidylglycerol sodium (DMPG), wherein the weight ratios of a: b: care 1: (1 - 3.8): (0.2 - 1.5); or (a) paclitaxel, (b) dimyristoyl phosphatidylcholine (DMPC), and (c) dimyristoyl phosphatidylglycerol sodium (DMPG), (ii) (a) cisplatin, (b) dimyristoyl phosphatidylcholine (DMPC), and (c) dimyristoyl phosphatidylglycerol sodium (DMPG), wherein the weight ratios of a: b: c are 1: (2.5 - 4.5): (1.5 - 2.5); or (a) cisplatin, (b) dimyristoyl phosphatidylcholine (DMPC), and (c) dimyristoyl phosphatidylglycerol sodium (DMPG), (iii) (a) cisplatin, (b) dimyristoyl phosphatidylcholine (DMPC), (c) dimyristoyl phosphatidylglycerol sodium (DMPG), and (d) cholesterol, wherein the weight ratios of a: b: c: d are 1: (2.5 - 4.5): (1.5 - 2.5): (0.5 - 1). (a) cisplatin, (b) dimyristoyl phosphatidylcholine (DMPC), (c) dimyristoyl phosphatidylglycerol sodium (DMPG), and (d) cholesterol,
Method comprising: - when a first signal is at a high logic level, a phase of simultaneous control of several parallel transistors (Ti), by applying on the gates of said transistors a potential turning said transistors on; and - when the first signal is at a low logic level, and a voltage across control and conduction terminals of said transistors (Ti)is higher than a threshold, a dissociated control phase of said transistors by opposed second signals (S2i) repeated in slots, a low logic state of each second signal turning the transistor (Ti) controlled by this second signal off, and a high logic state of each second signal causing the application, on the gate of the concerned transistor (Ti), of a potential (V-) strictly comprised between the potentials of the conduction terminals (130, 216) of the transistor. - when a first signal is at a high logic level, a phase of simultaneous control of several parallel transistors (Ti), by applying on the gates of said transistors a potential turning said transistors on; and - when the first signal is at a low logic level, and a voltage across control and conduction terminals of said transistors (Ti)is higher than a threshold, a dissociated control phase of said transistors by opposed second signals (S2i) repeated in slots, a low logic state of each second signal turning the transistor (Ti) controlled by this second signal off, and a high logic state of each second signal causing the application, on the gate of the concerned transistor (Ti), of a potential (V-) strictly comprised between the potentials of the conduction terminals (130, 216) of the transistor.
A system for loading a beneficial agent in an expandable medical device having a plurality of openings, a radially inner side and a radially outer side, the system comprising: a dispenser configured to dispense the fluid beneficial agent into the plurality of openings in the expandable medical device from the radially outer side thereof, characterized by the openings of the expandable medical device extend through the medical device from the radially inner side to the radially outer side thereof; a mandrel encapsulated by an outer jacket of a resilient or rubber-like material so as to seal the radially inner side of the openings in the expandable medical device. a dispenser configured to dispense the fluid beneficial agent into the plurality of openings in the expandable medical device from the radially outer side thereof, characterized by the openings of the expandable medical device extend through the medical device from the radially inner side to the radially outer side thereof; a mandrel encapsulated by an outer jacket of a resilient or rubber-like material so as to seal the radially inner side of the openings in the expandable medical device.