mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a three-dimensional structured surface with haptically and/or optically detectable microstructures that are fixed as a dataset, the method comprising: a) preparing a virtual or real elastic film; b) determining the elongations and compressions in the elastic film produced in a shaping process of the structured surface; c) modifying the dataset so that the elongations and compressions are at least partially compensated; d) checking an elastic film structured with the modified dataset for distortions in the microstructures; e) if necessary, repeating steps b) through d) until a final dataset is obtained; f) structuring the elastic film, so that a structure-supporting surface is produced on the film; g) spanning the elastic film onto a die so that the structure-supporting surface is facing the die; and h) applying a pressure difference between the side of the elastic film carrying the structure-supporting surface and the rearward surface thereof, so that the elastic foil is pulled in direction towards the die, characterized in that a friction-reducing fluid is introduced between the film and the die, wherein the friction-reducing fluid is a curable fluid that is cured at the foil after stress relaxation of the foil is completed. a) preparing a virtual or real elastic film; b) determining the elongations and compressions in the elastic film produced in a shaping process of the structured surface; c) modifying the dataset so that the elongations and compressions are at least partially compensated; d) checking an elastic film structured with the modified dataset for distortions in the microstructures; e) if necessary, repeating steps b) through d) until a final dataset is obtained; f) structuring the elastic film, so that a structure-supporting surface is produced on the film; g) spanning the elastic film onto a die so that the structure-supporting surface is facing the die; and h) applying a pressure difference between the side of the elastic film carrying the structure-supporting surface and the rearward surface thereof, so that the elastic foil is pulled in direction towards the die, characterized in that a friction-reducing fluid is introduced between the film and the die, wherein the friction-reducing fluid is a curable fluid that is cured at the foil after stress relaxation of the foil is completed.
Device for clamping, holding and/or guiding flat material, namely paper or cardboard or another fibrous flat material, during three-dimensional deformation of this material by a ram and an associated drawing bush, wherein a pressing device and a support are provided and wherein a mechanical drive capable of pressing the pressing device against the support is provided and wherein at least one spring element is provided between the pressing device and mechanical drive and/or in the mechanical drive, characterised in that the spring element during clamping of the flat material can be loaded to block state or in the case of several spring elements at least one spring element can be loaded to block state.
A method of mass spectrometry comprising: (i) providing a plurality of different parent ions; (ii) mass analysing said parent ions so as to obtain first mass spectral data; (iii) subjecting said parent ions to Electron Capture Dissociation ("ECD") and/or Electron Transfer Dissociation ("ETD") at atmospheric pressure to produce fragment and/or product ions, and subjecting said fragment and/or product ions to a fragmentation technique other than atmospheric pressure ECD and/or ETD to produce fragment and/or product ions; (iv) mass analysing said fragment and/or product ions produced in step (iii) so as to obtain second mass spectral data; (v) wherein the parent ions are intermittently and repeatedly subjected to said ECD and/or ETD, and said fragmentation technique other than atmospheric pressure ECD or ETD, such that the method repeatedly alternates between steps (ii) and (iv); and (vi) associating parent ions detected in said first mass spectral data with fragment and/or product ions detected in said second mass spectral data; wherein the step of providing the plurality of different parent ions comprises providing different parent ions that are spatially separated from each other such that they are received at a mass analyser at different times and so are mass analysed at different times in step (ii); and wherein the spatially separated parent ions are subjected to said ECD and/or ETD such that fragment and/or product ions that are derived from different parent ions are mass analysed in step (iv) at different times. (i) providing a plurality of different parent ions; (ii) mass analysing said parent ions so as to obtain first mass spectral data; (iii) subjecting said parent ions to Electron Capture Dissociation ("ECD") and/or Electron Transfer Dissociation ("ETD") at atmospheric pressure to produce fragment and/or product ions, and subjecting said fragment and/or product ions to a fragmentation technique other than atmospheric pressure ECD and/or ETD to produce fragment and/or product ions; (iv) mass analysing said fragment and/or product ions produced in step (iii) so as to obtain second mass spectral data; (v) wherein the parent ions are intermittently and repeatedly subjected to said ECD and/or ETD, and said fragmentation technique other than atmospheric pressure ECD or ETD, such that the method repeatedly alternates between steps (ii) and (iv); and (vi) associating parent ions detected in said first mass spectral data with fragment and/or product ions detected in said second mass spectral data; wherein the step of providing the plurality of different parent ions comprises providing different parent ions that are spatially separated from each other such that they are received at a mass analyser at different times and so are mass analysed at different times in step (ii); and wherein the spatially separated parent ions are subjected to said ECD and/or ETD such that fragment and/or product ions that are derived from different parent ions are mass analysed in step (iv) at different times.
Grille box for the protection of appliances of external exchange units in air conditioning systems located on walls of buildings, comprising a frame, side panels, a front panel and an upper panel, said frame is of parallelogram shape and comprises three fixed sides, joined together, and characterised in that a removable crosspiece which constitutes the fourth side of the frame, in such a way to allow the assembly of the grille box without requiring the prior disassembly of the appliance to protect, - said frame having holes (7, 7') to be fixed onto a wall with fixing means which can be visible or hidden by cover holes materials, and in that - said removable crosspiece is inserted on the frame by means of first interlocking hooks, and - said side panels and said upper panel have second interlocking hooks (8" and 8"') for the frame. - said frame having holes (7, 7') to be fixed onto a wall with fixing means which can be visible or hidden by cover holes materials, and in that - said removable crosspiece is inserted on the frame by means of first interlocking hooks, and - said side panels and said upper panel have second interlocking hooks (8" and 8"') for the frame.
An emissions treatment system (2, 30) for an exhaust stream of a diesel engine or a lean burn gasoline engine comprising: an ammonia-generating component that is a lean NOx trap catalyst (12, 42) disposed on an upstream carrier that is a flow through monolith; and an SCR catalyst (16, 46) disposed downstream of the ammonia-generating component, the SCR catalyst comprising a molecular sieve having the CHA crystal structure; wherein the emission treatment system is characterized by the lean NOx trap catalytic material disposed on an upstream carrier that is a flow through monolith; wherein the LNT catalyst comprises: an undercoat washcoat layer comprising a support material, at least one precious metal, and at least one NOx sorbent selected from the group consisting of oxides of magnesium, calcium, strontium, barium, lanthanum, cerium, praseodymium, neodymium, and combinations thereof wherein the undercoat washcoat layer is on the carrier; and a top washcoat layer comprising a support material, at least one precious metal, and ceria in particulate form, the top washcoat layer being substantially free of alkaline earth components. an ammonia-generating component that is a lean NOx trap catalyst (12, 42) disposed on an upstream carrier that is a flow through monolith; and an SCR catalyst (16, 46) disposed downstream of the ammonia-generating component, the SCR catalyst comprising a molecular sieve having the CHA crystal structure; wherein the emission treatment system is characterized by the lean NOx trap catalytic material disposed on an upstream carrier that is a flow through monolith; wherein the LNT catalyst comprises: an undercoat washcoat layer comprising a support material, at least one precious metal, and at least one NOx sorbent selected from the group consisting of oxides of magnesium, calcium, strontium, barium, lanthanum, cerium, praseodymium, neodymium, and combinations thereof wherein the undercoat washcoat layer is on the carrier; and a top washcoat layer comprising a support material, at least one precious metal, and ceria in particulate form, the top washcoat layer being substantially free of alkaline earth components. an undercoat washcoat layer comprising a support material, at least one precious metal, and at least one NOx sorbent selected from the group consisting of oxides of magnesium, calcium, strontium, barium, lanthanum, cerium, praseodymium, neodymium, and combinations thereof wherein the undercoat washcoat layer is on the carrier; and a top washcoat layer comprising a support material, at least one precious metal, and ceria in particulate form, the top washcoat layer being substantially free of alkaline earth components.
A method for containing effluent from one or more ovens using an exhaust device according to one of claims 10-15, comprising: positioning one or more ovens in the cabinet and surrounding the one or more ovens with a cabinet suction zone generated by a continuous space therein that opens, at oven face inlets, toward a forward face of the cabinet coinciding with a forward face of the one or more ovens; positioning the forward overhanging hood portion and creating a perimeter suction zone along a perimeter of the forward overhanging hood portion; the suction zone having forward and side aspects; the forward overhanging hood portion being contiguous and connected to the cabinet and the perimeter and cabinet suction zones being created by a negative pressure in the continuous space in communication between the hood portion and the cabinet; the continuous space being in communication with an exhaust connection connected to an exhaust fan to generate the negative pressure; the oven face inlets defining at least one side inlet and a top inlet immediately adjacent to each of the one or more ovens on a non-hinge side of the one or more ovens; and collecting fumes emitted by opening the door of the one or more ovens through the oven face inlets and the perimeter suction zone and exhausting them through the exhaust connection. positioning one or more ovens in the cabinet and surrounding the one or more ovens with a cabinet suction zone generated by a continuous space therein that opens, at oven face inlets, toward a forward face of the cabinet coinciding with a forward face of the one or more ovens; positioning the forward overhanging hood portion and creating a perimeter suction zone along a perimeter of the forward overhanging hood portion; the suction zone having forward and side aspects; the forward overhanging hood portion being contiguous and connected to the cabinet and the perimeter and cabinet suction zones being created by a negative pressure in the continuous space in communication between the hood portion and the cabinet; the continuous space being in communication with an exhaust connection connected to an exhaust fan to generate the negative pressure; the oven face inlets defining at least one side inlet and a top inlet immediately adjacent to each of the one or more ovens on a non-hinge side of the one or more ovens; and collecting fumes emitted by opening the door of the one or more ovens through the oven face inlets and the perimeter suction zone and exhausting them through the exhaust connection.
A method for diagnosing a gas-permeable object removed from a motor vehicle, such as a catalyst or a filter, wherein an end face of the object is subjected through an opening, by means of a device, to a test medium with a defined composition, such as a propane gas or carbon monoxide, in order to measure a catalytic reactivity and, at a position located downstream, a concentration of at least one reduced or oxidised component of the test medium is measured after having passed through the object, characterised in that the test medium is fed at different temperatures in order to determine the catalytic reactivity at different temperatures.
Wrist-worn medical alert device for conveying an emergency message to a caregiver, the device comprising: - a PPG unit adapted to acquire a first PPG signal at first wavelength (λ1) and a second PPG signal at second wavelength (λ2) over time at a wrist of a subject; - a processing unit adapted to receive the first and second PPG signals (25, 26) and to determine a finger movement of one or more fingers of the subject based on the first and second PPG signals; and - a communication unit adapted to transmit, based on the determined finger movement, an emergency message to the caregiver. - a PPG unit adapted to acquire a first PPG signal at first wavelength (λ1) and a second PPG signal at second wavelength (λ2) over time at a wrist of a subject; - a processing unit adapted to receive the first and second PPG signals (25, 26) and to determine a finger movement of one or more fingers of the subject based on the first and second PPG signals; and - a communication unit adapted to transmit, based on the determined finger movement, an emergency message to the caregiver.
A portable massage roller, comprising: an outer contact skin having an outer surface configured to massage a user, the contact skin adapted to convert between a generally tubular expanded configuration and a collapsed configuration in which a volume of the roller is substantially reduced, the outer contact skin defining an inner cavity; and a collapsible support structure disposed within the contact skin inner cavity and sized to contact and radially support the contact skin in its expanded configuration sufficient to support the weight of a person rolling on the roller, characterised in that the collapsible support structure is rigid and is moveable between a support configuration in which the contact skin is supported in this expanded configuration, and a collapsed configuration which enables the contact skin to convert to the collapsed configuration. an outer contact skin having an outer surface configured to massage a user, the contact skin adapted to convert between a generally tubular expanded configuration and a collapsed configuration in which a volume of the roller is substantially reduced, the outer contact skin defining an inner cavity; and a collapsible support structure disposed within the contact skin inner cavity and sized to contact and radially support the contact skin in its expanded configuration sufficient to support the weight of a person rolling on the roller, characterised in that the collapsible support structure is rigid and is moveable between a support configuration in which the contact skin is supported in this expanded configuration, and a collapsed configuration which enables the contact skin to convert to the collapsed configuration.
A method for producing a plant-based medicine which contains Iberis amara, Menthae piperitae folium, Matricariae flos, Carvi fructus, Melissae folium, Angelicae radix, Liquiritiae radix, Cardui mariae fructus and Chelidonii herba in the form of alcoholic extracts, characterised in that in a first step a) Angelicae radix extract and Liquiritiae radix extract are mixed together in a volume ratio of 1:6 to 3:1 and subsequently in at least one further step the mixture from step a) is mixed together with the extracts of the further constituents or mixtures containing same, which are produced separately and where applicable additionally contain Liquiritiae radix. a) Angelicae radix extract and Liquiritiae radix extract are mixed together in a volume ratio of 1:6 to 3:1 and
A combustion-type exhaust gas treatment apparatus, comprising: a combustion treatment section for performing combustion treatment on an exhaust gas; a cooling section for cooling the exhaust gas which has been treated in said combustion treatment section; and a washing section for washing the exhaust gas with water so as to remove by-products produced by the combustion treatment, wherein said combustion treatment section includes: an exhaust-gas treatment combustor configured to form flames; a cylindrical body made from metal and having a roughened inner surface, said cylindrical body being located downstream of the flames, the combustion treatment of the exhaust gas being performed in said cylindrical body; and a water-film formation mechanism provided between said exhaust-gas treatment combustor and said cylindrical body and adapted to form a water film on said inner surface of said cylindrical body. a combustion treatment section for performing combustion treatment on an exhaust gas; a cooling section for cooling the exhaust gas which has been treated in said combustion treatment section; and a washing section for washing the exhaust gas with water so as to remove by-products produced by the combustion treatment, wherein said combustion treatment section includes: an exhaust-gas treatment combustor configured to form flames; a cylindrical body made from metal and having a roughened inner surface, said cylindrical body being located downstream of the flames, the combustion treatment of the exhaust gas being performed in said cylindrical body; and a water-film formation mechanism provided between said exhaust-gas treatment combustor and said cylindrical body and adapted to form a water film on said inner surface of said cylindrical body. an exhaust-gas treatment combustor configured to form flames; a cylindrical body made from metal and having a roughened inner surface, said cylindrical body being located downstream of the flames, the combustion treatment of the exhaust gas being performed in said cylindrical body; and a water-film formation mechanism provided between said exhaust-gas treatment combustor and said cylindrical body and adapted to form a water film on said inner surface of said cylindrical body.
A method for supporting a protocol data unit, PDU, session by an access and mobility function, AMF, the method comprising: receiving, from a terminal via a base station, a request message for requesting a PDU session establishment, wherein the request message includes an identifier, ID, of the terminal, a data network name, DNN, capability of the terminal, and information related to a PDU session including a type of the PDU session, and a session and service continuity, SSC, mode; in case that an ID of a session management function, SMF is not specified in the AMF, forwarding the request message to a default SMF; receiving, from the default SMF, information on the ID of the SMF, based on the forwarded request message; transmitting, to the SMF, the DNN, the information related to the PDU session, the ID of the terminal, the capability of the terminal, an ID of the base station to which the terminal belongs, and an ID of the AMF, for establishing the PDU session between the terminal and a data network; receiving, from the SMF, a message for notifying an establishment of the PDU session including the ID of the terminal, the DNN, the ID of the SMF, a terminal internet protocol, IP, and an ID of the PDU session; receiving, via the base station from the terminal, a PDU session release request message for the PDU session, after the PDU session is established; transmitting, to the SMF, the PDU session release request message; and receiving, from the SMF, a message indicating a release of an ID of the SMF associated with the PDU session. receiving, from a terminal via a base station, a request message for requesting a PDU session establishment, wherein the request message includes an identifier, ID, of the terminal, a data network name, DNN, capability of the terminal, and information related to a PDU session including a type of the PDU session, and a session and service continuity, SSC, mode; in case that an ID of a session management function, SMF is not specified in the AMF, forwarding the request message to a default SMF; receiving, from the default SMF, information on the ID of the SMF, based on the forwarded request message; transmitting, to the SMF, the DNN, the information related to the PDU session, the ID of the terminal, the capability of the terminal, an ID of the base station to which the terminal belongs, and an ID of the AMF, for establishing the PDU session between the terminal and a data network; receiving, from the SMF, a message for notifying an establishment of the PDU session including the ID of the terminal, the DNN, the ID of the SMF, a terminal internet protocol, IP, and an ID of the PDU session; receiving, via the base station from the terminal, a PDU session release request message for the PDU session, after the PDU session is established; transmitting, to the SMF, the PDU session release request message; and receiving, from the SMF, a message indicating a release of an ID of the SMF associated with the PDU session.
Power Takeoff Unit, designed for the use in a drive train of a motor vehicle having a permanently driven primary section for the permanent drive of primary drive wheels as well as with a secondary section for driving secondary drive wheels, wherein the secondary section can be uncoupled from the secondary drive wheels or can be connected with these when necessary, wherein the Power Takeoff Unit is designed for uncoupling or connecting the secondary section from or with the primary section when necessary, characterised in that the Power Takeoff Unit has an additional braking device, with which the secondary section of the drive train can be braked when the same is uncoupled from the primary section and the secondary drive wheels.
A method for preparing purified low acyl gellan gum from gellan gum fermentation broth, wherein the method comprises the following steps: 1) Deacylation of gellan gum fermentation broth, to obtain deacylated gellan gum solution; 2) First filtration of the deacylated gellan gum solution obtained in step 1), wherein used filter aid and filter media are diatomite and/or perlite with large particle size; 3) Second filtration of the gellan gum solution obtained in step 2), wherein used filter aid and/or filter media comprise diatomite and/or perlite with small particle size; and 4) Alcohol precipitation of the gellan gum solution obtained in step 3), drying, and milling to obtain the gellan gum product. 1) Deacylation of gellan gum fermentation broth, to obtain deacylated gellan gum solution; 2) First filtration of the deacylated gellan gum solution obtained in step 1), wherein used filter aid and filter media are diatomite and/or perlite with large particle size; 3) Second filtration of the gellan gum solution obtained in step 2), wherein used filter aid and/or filter media comprise diatomite and/or perlite with small particle size; and 4) Alcohol precipitation of the gellan gum solution obtained in step 3), drying, and milling to obtain the gellan gum product.
A method of measuring, by immunoassay, thyroglobulin in a sample separated from the body of a subject, the method comprising a pretreatment step of mixing the sample separated from the body of the subject with a pretreatment liquid containing an anionic surfactant, wherein the immunoassay is a direct competitive method, indirect competitive method or sandwich method.