mhurhangee/ep-ind-claims huggingface dataset:
Heat pump equipment, with a ventilation heat pump which indicates a vent nozzle and an exhaust air nozzle and an air-distribution unit which can be fixed on the ventilation heat pump in a detachable way, so that the exhaust air is routed through the air-distribution unit into the vent nozzles, characterized in that the entrained air is routed from the exhaust air nozzle through an entrained-air pipe into the air-distribution unit, where the air-distribution unit indicates a great number of possible exhaust-air openings, where the corresponding exhaust-air opening can be selected by breaking out or removing.
A method for preparing mesoporous microporous crystalline material involving at least one mesopore-templating agent according to anyone of Claims 14 or 15, said method comprising the following steps: (a) preparing a basic aqueous solution containing a parent material, being preferably a microporous crystalline aluminosilicate, chosen among (i) a microporous crystalline material and/or seeds thereof, (ii) precursors of materials of (i), or (iii) a combination of materials from (i) and (ii); and said at least one mesopore-templating agent, said mesopore-templating agent being soluble under the form of unimers in said solution, able to generate a micellization with temperature increase so that unimers assemble to form micellar aggregates, the micellization being reversible when decreasing temperature; (b) subjecting the synthesis medium of step (a) to mild hydrothermal conditions, the micellization of said templating agent(s) in solution occurring at a temperature lower than the temperature of the hydrothermal treatment; (c) stopping the treatment of step (b) by cooling down the system as obtained in (b) so as to dissociate the micellar aggregates of said mesopore-templating agent(s) and optionally neutralizing the system with an acid-containing solution; (d) recovering the mesoporous microporous crystalline material of step (c) and recovering said mesopore-templating agent(s) at least in part; (e) optionally, placing the mesoporous microporous crystalline material of step (d) in contact, with an ion exchange solution, preferably under stirring. (a) preparing a basic aqueous solution containing a parent material, being preferably a microporous crystalline aluminosilicate, chosen among (i) a microporous crystalline material and/or seeds thereof, (ii) precursors of materials of (i), or (iii) a combination of materials from (i) and (ii); and said at least one mesopore-templating agent, said mesopore-templating agent being soluble under the form of unimers in said solution, able to generate a micellization with temperature increase so that unimers assemble to form micellar aggregates, the micellization being reversible when decreasing temperature; (b) subjecting the synthesis medium of step (a) to mild hydrothermal conditions, the micellization of said templating agent(s) in solution occurring at a temperature lower than the temperature of the hydrothermal treatment; (c) stopping the treatment of step (b) by cooling down the system as obtained in (b) so as to dissociate the micellar aggregates of said mesopore-templating agent(s) and optionally neutralizing the system with an acid-containing solution; (d) recovering the mesoporous microporous crystalline material of step (c) and recovering said mesopore-templating agent(s) at least in part; (e) optionally, placing the mesoporous microporous crystalline material of step (d) in contact, with an ion exchange solution, preferably under stirring.
A laminate structure comprising: a sealant film comprising ethylene-based polymer; a print film laminated to the sealant film, the print film comprising at least 3 layers and having an overall thickness from 15 to 30 μm, where the print film comprises a middle layer, an inner layer disposed between sealant film and the middle layer, and an outer layer, wherein the middle layer comprises at least 90% by weight high density polyethylene (HDPE) having a density from 0.950 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min, wherein density is measured according to ASTM D792, Method B and I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; the inner layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min; and the outer layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min; wherein the laminate structure exhibits a gloss value of at least 40%, wherein gloss is measured at 45° according to ASTM D2457. a sealant film comprising ethylene-based polymer; a print film laminated to the sealant film, the print film comprising at least 3 layers and having an overall thickness from 15 to 30 μm, where the print film comprises a middle layer, an inner layer disposed between sealant film and the middle layer, and an outer layer, wherein the middle layer comprises at least 90% by weight high density polyethylene (HDPE) having a density from 0.950 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min, wherein density is measured according to ASTM D792, Method B and I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; the inner layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min; and the outer layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min; the middle layer comprises at least 90% by weight high density polyethylene (HDPE) having a density from 0.950 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min, wherein density is measured according to ASTM D792, Method B and I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; the inner layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min; and the outer layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2) from 0.1 to 20 g/10 min; wherein the laminate structure exhibits a gloss value of at least 40%, wherein gloss is measured at 45° according to ASTM D2457.
A combustion experimental apparatus (S1, S2, S3) comprising: a test tube that extends in a longitudinal direction, is adapted to form flames therein, and in which an internal flow path thereof has a diameter less than a flame-quenching distance at room temperature; a supply device to supply a premixed gas produced by mixing fuel and oxidizing agent into the test tube; a flame position-obtaining device to obtain positions of flames inside the test tube; and a temperature-adjusting fluid supply device to cause a temperature-adjusting fluid to flow along the test tube; characterized in that the temperature-adjusting fluid supply device includes: a heater disposed at a first end of the test tube and adapted to adjust the temperature of a fluid to a temperature higher than the ignition temperature of the premixed gas and to change the fluid into the temperature-adjusting fluid; and a guide part (2c, 2d, 2e) adapted to guide the temperature-adjusting fluid from the first end toward a second end of the test tube in the longitudinal direction of the test tube, and the supply device is adapted to supply the premixed gas having a temperature lower than that of the temperature-adjusting fluid into the test tube from the second end toward the first end of the test tube. a test tube that extends in a longitudinal direction, is adapted to form flames therein, and in which an internal flow path thereof has a diameter less than a flame-quenching distance at room temperature; a supply device to supply a premixed gas produced by mixing fuel and oxidizing agent into the test tube; a flame position-obtaining device to obtain positions of flames inside the test tube; and a temperature-adjusting fluid supply device to cause a temperature-adjusting fluid to flow along the test tube; characterized in that the temperature-adjusting fluid supply device includes: a heater disposed at a first end of the test tube and adapted to adjust the temperature of a fluid to a temperature higher than the ignition temperature of the premixed gas and to change the fluid into the temperature-adjusting fluid; and a guide part (2c, 2d, 2e) adapted to guide the temperature-adjusting fluid from the first end toward a second end of the test tube in the longitudinal direction of the test tube, and the supply device is adapted to supply the premixed gas having a temperature lower than that of the temperature-adjusting fluid into the test tube from the second end toward the first end of the test tube. a heater disposed at a first end of the test tube and adapted to adjust the temperature of a fluid to a temperature higher than the ignition temperature of the premixed gas and to change the fluid into the temperature-adjusting fluid; and a guide part (2c, 2d, 2e) adapted to guide the temperature-adjusting fluid from the first end toward a second end of the test tube in the longitudinal direction of the test tube, and the supply device is adapted to supply the premixed gas having a temperature lower than that of the temperature-adjusting fluid into the test tube from the second end toward the first end of the test tube.
A method for processing radio frequency identification, RFID, communication device data, the method comprising: measuring an energy level of a RFID signal received on a first communication channel; measuring an energy level of the RFID signal received on a second communication channel; characterized in that selecting the communication channel with the higher energy level; and acquiring data samples from the RFID signal received on the selected channel, wherein acquiring data samples from the RFID signal received on the selected channel includes applying a threshold value to determine a logical state of at least one of the acquired data samples. measuring an energy level of a RFID signal received on a first communication channel; measuring an energy level of the RFID signal received on a second communication channel; selecting the communication channel with the higher energy level; and acquiring data samples from the RFID signal received on the selected channel, wherein acquiring data samples from the RFID signal received on the selected channel includes applying a threshold value to determine a logical state of at least one of the acquired data samples.
A steam turbine having at least a high-pressure blade cascade, an intermediate-pressure blade cascade and a plurality of dummy members (12,14,16) that are attached to a common rotor shaft, the steam turbine characterized in that it comprises: a detection unit that detects a steam flow into an intermediate-pressure chamber; a pressure reducing unit that reduces a pressure difference between both sides of a target intermediate pressure dummy member of said plurality of the dummy members (12,14,16) when the steam flow into the intermediate-pressure chamber stops, the target dummy member having one side communicating with a part of the intermediate-pressure chamber, the pressure reducing unit comprising a first conduit that connects the both sides of the target dummy member; and a first valve that is provided in the first conduit to adjust the pressure difference between the both sides of the target dummy member; and a control unit that controls the pressure reducing unit based on a detection result obtained by the detection unit. a detection unit that detects a steam flow into an intermediate-pressure chamber; a pressure reducing unit that reduces a pressure difference between both sides of a target intermediate pressure dummy member of said plurality of the dummy members (12,14,16) when the steam flow into the intermediate-pressure chamber stops, the target dummy member having one side communicating with a part of the intermediate-pressure chamber, the pressure reducing unit comprising a first conduit that connects the both sides of the target dummy member; and a first valve that is provided in the first conduit to adjust the pressure difference between the both sides of the target dummy member; and a control unit that controls the pressure reducing unit based on a detection result obtained by the detection unit.
An assembly device for use in the percutaneous endoscopic gastrostomy to be used with a first channel and a second channel, wherein the first channel has an internal portion located at an intended position inside a human body, said device comprising: a first connector comprising a first interface member and a channel communication section, where at least a portion of said first channel communication section is provided inside said first channel; characterized in that a second connector comprising a second interface member and a channel communication section, where at least a portion of said second channel communication section is provided inside said second channel; said first interface member of said first connector and said second interface member of said second connector configured to join together to form a coupling configured to allow fluid to flow between the first channel and the second channel, said coupling having a predetermined decoupling force in the axial direction of the coupling; wherein said coupling is joined to the first channel and the second channel at said communication section of said first connector and said communication section of said second connector; wherein said predetermined axial decoupling force is the force required to separate said first connector and the second connector from one another along with the internal portion of the first channel maintaining its intended position in the human body when the second channel is pulled away from the human body; and wherein the decoupling force is between 1.1 kilograms-force and 1.3 kilograms-force, i.e. between 10.8 N and 12.7N. a first connector comprising a first interface member and a channel communication section, where at least a portion of said first channel communication section is provided inside said first channel; characterized in that a second connector comprising a second interface member and a channel communication section, where at least a portion of said second channel communication section is provided inside said second channel; said first interface member of said first connector and said second interface member of said second connector configured to join together to form a coupling configured to allow fluid to flow between the first channel and the second channel, said coupling having a predetermined decoupling force in the axial direction of the coupling; wherein said coupling is joined to the first channel and the second channel at said communication section of said first connector and said communication section of said second connector; wherein said predetermined axial decoupling force is the force required to separate said first connector and the second connector from one another along with the internal portion of the first channel maintaining its intended position in the human body when the second channel is pulled away from the human body; and wherein the decoupling force is between 1.1 kilograms-force and 1.3 kilograms-force, i.e. between 10.8 N and 12.7N.
An apparatus comprising: a tangible memory having stored therein: - patient information regarding, at the least, a patient's external contour and a treatment target's size and position with respect to the patient; - treatment-platform information regarding dynamic elements of a dynamic arc-therapy radiation-treatment platform including a radiation source; a control circuit operably coupled to the tangible memory and configured to use the patient information and the treatment-platform information to automatically suggest a treatment plan having at least one treatment-pathway traversal comprising an arc, including sub-treatment-pathway traversal-based physical alterations to at least one of the dynamic elements of the dynamic radiation-treatment platform and that are configured to avoid a collision between the patient and an element of the dynamic radiation-treatment platform, wherein the physical alterations provide a relative offset between the radiation source and the treatment target during the at least one treatment-pathway traversal comprising an arc such that, before completing the entire arc, the radiation source is offset from a first sub-treatment pathway comprising only a portion of an arc to a second sub-treatment pathway comprising only a portion of an arc. a tangible memory having stored therein: - patient information regarding, at the least, a patient's external contour and a treatment target's size and position with respect to the patient; - treatment-platform information regarding dynamic elements of a dynamic arc-therapy radiation-treatment platform including a radiation source; - patient information regarding, at the least, a patient's external contour and a treatment target's size and position with respect to the patient; - treatment-platform information regarding dynamic elements of a dynamic arc-therapy radiation-treatment platform including a radiation source; a control circuit operably coupled to the tangible memory and configured to use the patient information and the treatment-platform information to automatically suggest a treatment plan having at least one treatment-pathway traversal comprising an arc, including sub-treatment-pathway traversal-based physical alterations to at least one of the dynamic elements of the dynamic radiation-treatment platform and that are configured to avoid a collision between the patient and an element of the dynamic radiation-treatment platform, wherein the physical alterations provide a relative offset between the radiation source and the treatment target during the at least one treatment-pathway traversal comprising an arc such that, before completing the entire arc, the radiation source is offset from a first sub-treatment pathway comprising only a portion of an arc to a second sub-treatment pathway comprising only a portion of an arc.
A communication system, comprising: a communication management unit, CMU, located on a vehicle, wherein the CMU is configured to send downlink messages and receive uplink messages, and wherein the CMU comprises a processor, a memory and an input/output port; wherein the processor is configured to run a distribution application operable to: when data is received in an uplink message from a ground station at the input/output port, transmit the data to a designated first device and transmit selected data of the data received at the input/output port to at least one designated second device; and when data is received in a downlink message from the first device or the second device, transmit the data to the other of the first and second device as well as an intended recipient of the data at the ground station. a communication management unit, CMU, located on a vehicle, wherein the CMU is configured to send downlink messages and receive uplink messages, and wherein the CMU comprises a processor, a memory and an input/output port; wherein the processor is configured to run a distribution application operable to: when data is received in an uplink message from a ground station at the input/output port, transmit the data to a designated first device and transmit selected data of the data received at the input/output port to at least one designated second device; and when data is received in a downlink message from the first device or the second device, transmit the data to the other of the first and second device as well as an intended recipient of the data at the ground station. when data is received in an uplink message from a ground station at the input/output port, transmit the data to a designated first device and transmit selected data of the data received at the input/output port to at least one designated second device; and when data is received in a downlink message from the first device or the second device, transmit the data to the other of the first and second device as well as an intended recipient of the data at the ground station.
A method for treatment of ballast water, the method comprising the following steps: - providing a down pipe, the down pipe having a predefined length and a predefined Froude number, - carrying the ballast water from an inlet pipe through the down pipe to a ballast tank; - providing the ballast water in the inlet pipe with an inlet pressure; and - providing an underpressure in the upper portion of the down pipe inducing the formation of gas bubbles in the ballast water, characterized in that the method further comprises the following steps: - providing a throttling device for receiving ballast water from the inlet pipe, the throttling device forming an adjustable gap defining a throttling area; - providing a closed container in connection with the throttling device at the upper portion of the down pipe, the closed container having a Froude number; and in that the inlet pressure, the throttling area, the Froude number of the closed container, the Froude number of the down pipe and the length of the down pipe are chosen such that a boiling state is maintained in the ballast water in at least the upper portion of the closed container, wherein the closed container has a larger flow area than the flow area (b) of the down pipe, wherein the container is formed with a Froude number which is less than 0.3, and preferably less than 0.2, wherein the down pipe is formed with a Froude number which is greater than 0.3, wherein the length of the down pipe exceeds 10 metres. - providing a down pipe, the down pipe having a predefined length and a predefined Froude number, - carrying the ballast water from an inlet pipe through the down pipe to a ballast tank; - providing the ballast water in the inlet pipe with an inlet pressure; and - providing an underpressure in the upper portion of the down pipe inducing the formation of gas bubbles in the ballast water, characterized in that the method further comprises the following steps: - providing a throttling device for receiving ballast water from the inlet pipe, the throttling device forming an adjustable gap defining a throttling area; - providing a closed container in connection with the throttling device at the upper portion of the down pipe, the closed container having a Froude number;