mhurhangee/ep-ind-claims huggingface dataset:
A water management system for use on-board a passenger transport vehicle, comprising: (a) a water collection device comprising a mat comprising one or more one or more perforations, openings, or holes into which moisture or water can flow; (b) a conduit configured to direct collected moisture or water away from the water collection device to a removal location to which the moisture or water is to be removed, when a pressure differential is created through the conduit to cause the moisture to be pulled into and through the conduit; and (c) a valve configured to control passage of moisture or water through the conduit. characterised in that the water management device further comprises: (d) a water sensor for detecting leaks in the vehicle mounted above the water collection device such that it can detect whether a water rise has occurred in the location of the water collection device; and (e) a controller in communication with the water sensor and configured to control the opening and closing of the valve, such that the valve remains in an open position if a leak or water rise is detected by the water sensor so that the water can be quickly removed. (a) a water collection device comprising a mat comprising one or more one or more perforations, openings, or holes into which moisture or water can flow; (b) a conduit configured to direct collected moisture or water away from the water collection device to a removal location to which the moisture or water is to be removed, when a pressure differential is created through the conduit to cause the moisture to be pulled into and through the conduit; and (c) a valve configured to control passage of moisture or water through the conduit. (d) a water sensor for detecting leaks in the vehicle mounted above the water collection device such that it can detect whether a water rise has occurred in the location of the water collection device; and (e) a controller in communication with the water sensor and configured to control the opening and closing of the valve, such that the valve remains in an open position if a leak or water rise is detected by the water sensor so that the water can be quickly removed.
Carbonic acid adduct comprising carbonic acid, at least one amine and optionally at least one salt, which adduct can be prepared using a method comprising the steps of a) providing a solution which comprises at least one solvent and CO 2 dissolved in the at least one solvent, optionally b) dissolving a base which does not correspond to the amine in the solution so as to obtain the solution, c) dissolving the at least one amine in solution or so as to obtain the solution, d) freezing the solution obtained after the completion of step c), e) storing the solution frozen in step d) at -100 to 0 °C for no longer than 4 days, wherein the content of CO 2 in the solution subjected to step d) is at least 6 g/l, preferably at least 10 g/l, more preferably at least 12 g/l, even more preferably at least 14 g/l and very particularly preferably at least 15 g/l, and the amine can also be used in the form of a salt. a) providing a solution which comprises at least one solvent and CO 2 dissolved in the at least one solvent, optionally b) dissolving a base which does not correspond to the amine in the solution so as to obtain the solution, c) dissolving the at least one amine in solution or so as to obtain the solution, d) freezing the solution obtained after the completion of step c), e) storing the solution frozen in step d) at -100 to 0 °C for no longer than 4 days,
A method of preparing a planar microdevice comprising a plurality of reservoirs, wherein the planar device is prepared by a method comprising: fabricating a planar layer of a biocompatible polymer on a substrate; defining a microdevice structure in the planar layer using successive deposition of photoresist layer, light exposure, and etching; introducing a plurality of reservoirs in the microdevice structure using successive deposition of photoresist layer, light exposure, and partial etching, thereby producing a planar microdevice comprising a plurality of reservoirs, wherein the plurality of reservoirs are open at a first surface of the microdevice and are closed at the second surface of the microdevice; and depositing by spin coating a solution comprising a bioactive agent and a prepolymer into the plurality of reservoirs and polymerizing the solution. fabricating a planar layer of a biocompatible polymer on a substrate; defining a microdevice structure in the planar layer using successive deposition of photoresist layer, light exposure, and etching; introducing a plurality of reservoirs in the microdevice structure using successive deposition of photoresist layer, light exposure, and partial etching, thereby producing a planar microdevice comprising a plurality of reservoirs, wherein the plurality of reservoirs are open at a first surface of the microdevice and are closed at the second surface of the microdevice; and depositing by spin coating a solution comprising a bioactive agent and a prepolymer into the plurality of reservoirs and polymerizing the solution.
Process for producing a laminated glass pane made up of a base pane, a first laminating film, a coated polymer film with a coating (1.2), a second laminating film, and a cover pane with at least one sensor window comprising the steps a) through d), wherein a) the coated polymer film is tensioned by way of a vacuum table overlaid with one or a plurality of glass plates, wherein the coating (1.2) points away from the vacuum table, b) at least one decoated region (1.3) is produced on the coated polymer film by means of laser treatment, wherein the coated polymer film is decoated by means of at least one 2D laser scanner (5.1, 5.2) or 3D laser scanner that is arranged perpendicular to the coated polymer film, wherein the coating (1.2) of the coated polymer film points in the direction of the laser scanner (5.1, 5.2, 13). c) the first laminating film is arranged on the base pane, the coated polymer film is arranged on the first laminating film, the second laminating film is arranged on the coated polymer film, and the cover pane is arranged on the second laminating film, and d) the arrangement is autoclaved, wherein the decoated region (1.3) is produced above glass plates (2.1, 2.2) with which the vacuum table is covered. a) the coated polymer film is tensioned by way of a vacuum table overlaid with one or a plurality of glass plates, wherein the coating (1.2) points away from the vacuum table, b) at least one decoated region (1.3) is produced on the coated polymer film by means of laser treatment, wherein the coated polymer film is decoated by means of at least one 2D laser scanner (5.1, 5.2) or 3D laser scanner that is arranged perpendicular to the coated polymer film, wherein the coating (1.2) of the coated polymer film points in the direction of the laser scanner (5.1, 5.2, 13). c) the first laminating film is arranged on the base pane, the coated polymer film is arranged on the first laminating film, the second laminating film is arranged on the coated polymer film, and the cover pane is arranged on the second laminating film, and d) the arrangement is autoclaved,
An injection molding machine comprising: a clamping force sensor configured to detect a clamping force of a mold; and a clamping force monitoring unit configured to monitor a detected value of the clamping force sensor and characterized in that the clamping force monitoring unit is configured to calculate a first mold open distance (ΔX1) that is calculated based on a difference between a maximum value of the detected values obtained during an injection process and a pressure holding process and the detected value obtained at a start of the injection process; and a second mold open distance (ΔX2) that is calculated based on a difference between the detected value obtained at an end of the pressure holding process and the detected value obtained at the start of the injection process, wherein the clamping force monitoring unit is configured to evaluate a quality of a molding product based on the first mold open distance (ΔX1) and the second mold open distance (ΔX1). a clamping force sensor configured to detect a clamping force of a mold; and a clamping force monitoring unit configured to monitor a detected value of the clamping force sensor and characterized in that the clamping force monitoring unit is configured to calculate a first mold open distance (ΔX1) that is calculated based on a difference between a maximum value of the detected values obtained during an injection process and a pressure holding process and the detected value obtained at a start of the injection process; and a second mold open distance (ΔX2) that is calculated based on a difference between the detected value obtained at an end of the pressure holding process and the detected value obtained at the start of the injection process, wherein the clamping force monitoring unit is configured to evaluate a quality of a molding product based on the first mold open distance (ΔX1) and the second mold open distance (ΔX1).
An assistance device for supporting an upper body of a care receiver and performing standing assistance for the care receiver, the assistance device comprising: a base; a body supporting member provided on the base in a manner capable of being raised and lowered, the body supporting member comprising a torso support member configured to support the torso of the care receiver on the body front side; a first load detecting device provided on the torso support member, and configured to detect a first load (a) applied by the care receiver; a second load detecting apparatus provided on the torso support member at a position rearwards of the first load detecting device, and configured to detect a second load (b) applied by the care receiver; and an effort level calculating device configured to calculate an effort level representing to what extent the care receiver is using their own leg power during the standing assistance based on a relationship between the first load (a) and the second load (b). a base; a body supporting member provided on the base in a manner capable of being raised and lowered, the body supporting member comprising a torso support member configured to support the torso of the care receiver on the body front side; a first load detecting device provided on the torso support member, and configured to detect a first load (a) applied by the care receiver; a second load detecting apparatus provided on the torso support member at a position rearwards of the first load detecting device, and configured to detect a second load (b) applied by the care receiver; and an effort level calculating device configured to calculate an effort level representing to what extent the care receiver is using their own leg power during the standing assistance based on a relationship between the first load (a) and the second load (b).
Planar tool consisting of a planar body, a first region of the tool that can be used as a deposit coin having a circular first edge which extends over a circumferential angle (α) of more than 180 degrees, in particular more than 200 degrees, and having a diameter of 23 to 26 millimetres, and the tool having an opening which can be used as a bottle opener and has a tongue which projects into the opening for engaging under a cap, and a supporting edge opposite the tongue for resting on the cap, characterised in that the opening is arranged within the first edge of the first region.
A method for liquid detection, comprising: implementing CT imaging and XRD imaging on one or more liquid planes of liquid contained in a container at the same time by rotating the container so that X-rays from a same radiation source scan a whole area of each of the one or more liquid planes; and generating a substance identification result for the liquid contained in the container based on a CT image and a XRD image, wherein the CT imaging and the XRD imaging are implemented on a same liquid plane or different liquid planes. implementing CT imaging and XRD imaging on one or more liquid planes of liquid contained in a container at the same time by rotating the container so that X-rays from a same radiation source scan a whole area of each of the one or more liquid planes; and generating a substance identification result for the liquid contained in the container based on a CT image and a XRD image, wherein the CT imaging and the XRD imaging are implemented on a same liquid plane or different liquid planes.
Solid oral pharmaceutical composition, comprising as active ingredient a salt of atorvastatin in crystalline form, wherein the active ingredient has a particle size distribution with a D90 value of less than 100 μm and wherein the composition is directly compressed, wherein the composition additionally comprises a hydrogel former that is a hydroxypropyl methylcellulose and that has a dynamic viscosity within a range from 50 mPa·s (50 cP) to 500 mPa·s (500 cP), where D values are determined in accordance with the European Pharmacopoeia, 8th edition, Chapter 2.9.31, pages 455-460 and where the dynamic viscosity is to be determined in accordance with the European Pharmacopoeia, 8th edition, 2014 Print, pp. 35-36, Chapter 2.2.9 using a 2% mixture of the gel former in water at a temperature of 20 + 0.1°C.
A method for communication of handover related information in a wireless communications network including the steps of: at a selected network node, receiving a re-establishment cause from a mobile terminal during connection re-establishment of the mobile terminal with the selected network node, at the selected network node, sending the re-establishment cause to a source network node to enable the source network node to identify failures related to handover. at a selected network node, receiving a re-establishment cause from a mobile terminal during connection re-establishment of the mobile terminal with the selected network node, at the selected network node, sending the re-establishment cause to a source network node to enable the source network node to identify failures related to handover.
A method of making micelles comprising rabies virus glycoproteins (G proteins), wherein the G proteins form a trimer comprising: (a) transforming an Sf9 insect host cell with a baculovirus vector comprising a nucleic acid encoding a RV G protein; (b) culturing said host cell to express the nucleic acid; and (c) purifying the RV G protein in the form of micelles. (a) transforming an Sf9 insect host cell with a baculovirus vector comprising a nucleic acid encoding a RV G protein; (b) culturing said host cell to express the nucleic acid; and (c) purifying the RV G protein in the form of micelles.
An angiographic injection system which is configured to: present, in a first display on a control panel, a plurality of different injection procedure options in a user interface of the angiographic injection system, the plurality of different injection procedure options including a cardiac procedure option and a non-cardiac procedure option; receive a user selection of an injection procedure from the displayed plurality of different injection procedure options; present, in a second display (552, 554) on the control panel, based on the user-selected injection procedure, a plurality of injection types; receive a user selection of an injection type from the displayed plurality of injection types; process, via a microprocessor, based on the user-selected injection type, a default set of injection parameters; present in a third display on the control panel, the default set of injection parameters within the user interface of the angiographic injection system prior to an injection; wherein one of the default injection parameters is an injection flow rate, an injection volume, a rise time of injection flow rate, or an injection pressure of medical fluid; and wherein the angiographic injection system is configured to perform the injection procedure after processing the default set of injection parameters. present, in a first display on a control panel, a plurality of different injection procedure options in a user interface of the angiographic injection system, the plurality of different injection procedure options including a cardiac procedure option and a non-cardiac procedure option; receive a user selection of an injection procedure from the displayed plurality of different injection procedure options; present, in a second display (552, 554) on the control panel, based on the user-selected injection procedure, a plurality of injection types; receive a user selection of an injection type from the displayed plurality of injection types; process, via a microprocessor, based on the user-selected injection type, a default set of injection parameters; present in a third display on the control panel, the default set of injection parameters within the user interface of the angiographic injection system prior to an injection; wherein one of the default injection parameters is an injection flow rate, an injection volume, a rise time of injection flow rate, or an injection pressure of medical fluid; and wherein the angiographic injection system is configured to perform the injection procedure after processing the default set of injection parameters.
A fiber laser system, comprising: a fiber laser having a laser head and a head end; an end-use apparatus to which said fiber laser is optically coupled, characterized by a beam steering device optically coupled to said fiber laser; and a position-sensitive sensor (104, 404) onto which at least a portion of an output of said laser is incident, said end-use apparatus comprising a system controller for receiving an output derived from said position-sensitive sensor (104, 404), and providing a feedback control signal to said beam steering device through a communication interface between said end-use apparatus and said laser head. a fiber laser having a laser head and a head end; an end-use apparatus to which said fiber laser is optically coupled, characterized by a beam steering device optically coupled to said fiber laser; and a position-sensitive sensor (104, 404) onto which at least a portion of an output of said laser is incident, said end-use apparatus comprising a system controller for receiving an output derived from said position-sensitive sensor (104, 404), and providing a feedback control signal to said beam steering device through a communication interface between said end-use apparatus and said laser head.
An electrode for electrolysis, the electrode comprising: a metal base layer; and a coating layer containing a ruthenium oxide, a cerium oxide, and a nickel oxide, wherein the coating layer is formed on at least one surface of the metal base layer, a molar ratio of a cerium element to a nickel element, which are contained in the coating layer, is in a range of 10:90 to 90:10, a molar ratio of a ruthenium element to a nickel element, which are contained in the coating layer, is in a range of 100:2 to 100:20, and the nickel oxide and the cerium oxide are contained in a single coating layer at the same time. a metal base layer; and a coating layer containing a ruthenium oxide, a cerium oxide, and a nickel oxide, wherein the coating layer is formed on at least one surface of the metal base layer, a molar ratio of a cerium element to a nickel element, which are contained in the coating layer, is in a range of 10:90 to 90:10, a molar ratio of a ruthenium element to a nickel element, which are contained in the coating layer, is in a range of 100:2 to 100:20, and the nickel oxide and the cerium oxide are contained in a single coating layer at the same time.
An earphone testing device, the earphone testing device comprising a fixation base, a standard microphone is attached to the fixation base, and a fixation scaffold for attaching and fixing the fixation base and the standard microphone; the fixation base is supported and fixed on the fixation scaffold by several supporting columns; a sealer is located on the position on the fixation base in contact with the outer shell of an earphone, the sealer forms an earphone storage portion for placing the earphone; and a groove is provided on the earphone storage portion for placing an earphone handle, characterised in that a sound leaking trough is provided on the fixation base, the position of sound leaking trough corresponds to the position of a leaking hole on the earphone placed in the earphone storage portion; a sealer is located on the position on the fixation base in contact with the outer shell of the standard microphone, the sealer forms a microphone attachment portion for attaching to the standard microphone; the earphone placed in the earphone storage portion and the standard microphone attached onto the microphone attachment portion are communicated with each other in the fixation base.
Step or plate for a conveying device, wherein the each step or plate has two lateral step cheeks or cheeks (20.1, 20.2) arranged substantially perpendicular to a tread element and a riser element of the step or to a tread element of the plate, wherein the step cheek or cheek (20.1, 20.2) consists of an integral deep-drawn metal sheet and the metal sheet has a three-dimensional form with an at least partly encircling flange, characterised in that the step cheek or cheek (20.1, 20.2) comprises a chain pin axle (21.1, 21.2) of a chain or conveyor chain, wherein the step cheek or cheek (20.1, 20.2) has at least one deep drawn step eye or plate eye for the chain pin axle (21.1, 21.2), which is enclosed or surrounded by the metal sheet.
A method for making a detection device for detecting a position of a movable rod of a pneumatic actuator, comprising the operating steps of: taking a first body comprising a connecting portion, a supporting portion connected to the connecting portion, an electrical connector associated with the connecting portion and which in use enables electrical connection of the detection device to a control unit, a magnetic field detection sensor positioned on the supporting portion and electrical connecting means for electrically connecting the electrical connector to the detection sensor; taking a second body comprising a housing in which the supporting portion can be inserted; inserting the supporting portion and the detection sensor positioned on it into the housing; irremovably constraining the first body to the second body; characterised in that the housing is made in an elongate part of the second body and has a main line of extension, a bottom and a mouth through which the supporting portion is inserted in the housing during the insertion step, the insertion step occurring by inserting the supporting portion into the housing along a line of insertion that is parallel to the main line of extension of the housing, in that the first body and the second body comprise, one at least one projecting element and the other at least one corresponding hole in which the projecting element can be inserted, in that during the insertion step the projecting element is inserted in the hole, and in that during the constraining step the first body is irremovably constrained to the second body by plastically deforming the projecting element to prevent it from being extracted from the hole in which it is inserted. taking a first body comprising a connecting portion, a supporting portion connected to the connecting portion, an electrical connector associated with the connecting portion and which in use enables electrical connection of the detection device to a control unit, a magnetic field detection sensor positioned on the supporting portion and electrical connecting means for electrically connecting the electrical connector to the detection sensor; taking a second body comprising a housing in which the supporting portion can be inserted; inserting the supporting portion and the detection sensor positioned on it into the housing; irremovably constraining the first body to the second body;