mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the processing of a sample fluid for optical processing, wherein said sample fluid comprises different components (M, C+M) with magnetic particles (M), said method comprising the following steps: a) introducing the sample fluid into a first compartment (120-620) of a container (110-510); b) letting in a first phase at least one selected component (M) of the sample pass through a filtering element (140-640) that separates the first compartment (120-620) from a second compartment (130-630) while the passage of at least one other component (C+M) is blocked; c) collecting the at least one other component (C+M) of the sample on an optical surface (150-650) that is disposed in the first compartment (120-620) or collecting the at least one selected component (M) on an optical surface that is disposed in the second compartment (130-630) of the container; and d) generating during the first phase a magnetic field (B1) with a nonzero field gradient across the filtering element (140-640) and with field lines that are perpendicular to the filtering element; the method being characterized by : e) generating after the first phase a magnetic field (B2) with field lines that are parallel to the filtering element (140-640). a) introducing the sample fluid into a first compartment (120-620) of a container (110-510); b) letting in a first phase at least one selected component (M) of the sample pass through a filtering element (140-640) that separates the first compartment (120-620) from a second compartment (130-630) while the passage of at least one other component (C+M) is blocked; c) collecting the at least one other component (C+M) of the sample on an optical surface (150-650) that is disposed in the first compartment (120-620) or collecting the at least one selected component (M) on an optical surface that is disposed in the second compartment (130-630) of the container; and d) generating during the first phase a magnetic field (B1) with a nonzero field gradient across the filtering element (140-640) and with field lines that are perpendicular to the filtering element;
Dishwasher having a dishwasher cavity delimiting a dishwasher interior, in which at least two spray arms are arranged and provided in different spray planes, via which washing liquid is applied to the items to be washed, and having a control unit designed to perform at least one washing program (I, II, III), in particular a low-temperature program, wherein in the presence of a start signal (S V ) a special cleaning program (S) for cleaning the dishwasher cavity , in particular by applying washing liquid thereto, is performed, in which the washing liquid can be heated in a subprogram step (R) during a heating phase (Δt H ) to a cleaning temperature (T RS ), characterised in that during the heating phase (Δt H ) in the special cleaning program (S) the upper spray arm is taken out of operation, and the entire hydraulic circuit of the dishwasher takes place using the lower spray arm .
A process for the production of a foamed milk composition, comprising the following steps: (a1) providing a first dairy product selected from the group consisting of skimmed milk, milk with a set fat content, pasteurised milk, high temperature treated milk, ultrahigh temperature treated milk, condensed milk, whey, fine whey, buttermilk, soured milk, soured milk products, cream, yoghurt, kefir and ayran and their mixtures; (a2) providing a skimmed milk; (a3) subjecting the skimmed milk to ultrafiltration to obtain a permeate and a retentate, wherein the ultrafiltration is performed with a membrane having an average pore size in the range from about 15,000 to about 25,000 Daltons and at temperatures in the range of 35 to 60°C; (a4) subjecting the permeate of step (a3) to heat treatment for a period from about 4 to about 5 minutes at temperatures of about 90 to 140°C; (a5) drying of the heat-treated permeate from step (a4) by spray drying to obtain a permeate powder; (a6) providing a third component selected from the group consisting of animal proteins, vegetable proteins, hydrocolloids, emulsifiers, sugars, salts or mixtures thereof; (a7) providing a mixture of the first milk product of step (a1), the permeate powder of step (a5), and the third component of step (a6); (a8) subjecting the mixture from step (a7) to heat treatment to obtain a liquid product or drying of the mixture from step (a7) to obtain a powder; (a9) cooling the liquid product or alternatively the powder of step (a8); and (a 10) filling of the liquid product or the powder of step (a9) or the powder of step (a8). (a1) providing a first dairy product selected from the group consisting of skimmed milk, milk with a set fat content, pasteurised milk, high temperature treated milk, ultrahigh temperature treated milk, condensed milk, whey, fine whey, buttermilk, soured milk, soured milk products, cream, yoghurt, kefir and ayran and their mixtures; (a2) providing a skimmed milk; (a3) subjecting the skimmed milk to ultrafiltration to obtain a permeate and a retentate, wherein the ultrafiltration is performed with a membrane having an average pore size in the range from about 15,000 to about 25,000 Daltons and at temperatures in the range of 35 to 60°C; (a4) subjecting the permeate of step (a3) to heat treatment for a period from about 4 to about 5 minutes at temperatures of about 90 to 140°C; (a5) drying of the heat-treated permeate from step (a4) by spray drying to obtain a permeate powder; (a6) providing a third component selected from the group consisting of animal proteins, vegetable proteins, hydrocolloids, emulsifiers, sugars, salts or mixtures thereof; (a7) providing a mixture of the first milk product of step (a1), the permeate powder of step (a5), and the third component of step (a6); (a8) subjecting the mixture from step (a7) to heat treatment to obtain a liquid product or drying of the mixture from step (a7) to obtain a powder; (a9) cooling the liquid product or alternatively the powder of step (a8); and (a 10) filling of the liquid product or the powder of step (a9) or the powder of step (a8).
An electrode plate comprising a current collector , an electrode active material layer and a safety coating disposed between the current collector and the electrode active material layer , the safety coating comprising a polymer matrix, a conductive material and an inorganic filler in which the polymer matrix is a fluorinated polyolefin and/or chlorinated polyolefin polymer matrix, wherein based on the total weight of the safety coating, the weight percentage of the polymer matrix is from 35 wt% to 75 wt%; the weight percentage of the conductive material is from 5 wt% to 25 wt%; and the weight percentage of the inorganic filler is from 10 wt% to 60 wt%, characterized in that the inorganic filler has a conductivity σ that satisfies 10 -3 S/m ≤ σ ≤ 10 2 S/m.
A flexible lighting system that is a connection device connected to a flexible lighting device , the connection device comprising: a body part ; a connection terminal protruding toward the flexible lighting device from the body part and electrically connected to the flexible lighting device ; a lighting device guide part provided to protrude toward the flexible lighting device from the body part , configured to guide the flexible lighting device to be inserted into the connection device , and a clip part coupled to an outer side of the lighting device guide part at one open side surface of the lighting device guide part and provided to be fixed to one side surface of the flexible lighting device which is exposed to the outside due to the one open side surface, characterized in that said lighting device guide part has two side surfaces provided to be open, and in that a direction in which the flexible lighting device irradiates light is exposed to the outside through the other open side surface of the connection device . a body part ; a connection terminal protruding toward the flexible lighting device from the body part and electrically connected to the flexible lighting device ; a lighting device guide part provided to protrude toward the flexible lighting device from the body part , configured to guide the flexible lighting device to be inserted into the connection device , and a clip part coupled to an outer side of the lighting device guide part at one open side surface of the lighting device guide part and provided to be fixed to one side surface of the flexible lighting device which is exposed to the outside due to the one open side surface, characterized in that said lighting device guide part has two side surfaces provided to be open, and in that a direction in which the flexible lighting device irradiates light is exposed to the outside through the other open side surface of the connection device .
Measurement instrument for measuring parameters necessary for producing corrective spectacles for a wearer, and comprising: - a stand , - at least one at least partially occluding screen mounted on the stand , - at least one screen , mounted on the stand , - at least one image-capturing device, mounted on the stand in such a way as to be hidden by the at least partially occluding screen , the instrument being characterized in that it further comprises reversible substitution means for substituting the at least partially occluding screen for the screen so as to present the screen to the wearer during a phase of positioning of the wearer with respect to the instrument and for substituting the at least partially occluding screen for this screen during a measurement-taking phase. - a stand , - at least one at least partially occluding screen mounted on the stand , - at least one screen , mounted on the stand , - at least one image-capturing device, mounted on the stand in such a way as to be hidden by the at least partially occluding screen ,
A method comprising: receiving , at a first node along a network path between an originating node and a destination node , a network control message from the originating node , wherein the network control message was sent from the originating node on a specified path; wherein the network control message comprises a system management request and system management request metadata , and is received in a packet of a path-oriented network control protocol; analyzing the system management request to determine a particular system management function to perform at the first node; performing , at the first node, the particular system management function; generating a response payload indicating a result generated by causing performing the particular system management function; concatenating the response payload to a network control message or an existing message containing one or more other response payloads from one or more other nodes along the network path; transmitting a concatenated response payload to the originating node using the path-oriented network control protocol; and relaying the network control message received at first node to a second node using the path-oriented network control protocol; wherein the method is performed by one or more processors. receiving , at a first node along a network path between an originating node and a destination node , a network control message from the originating node , wherein the network control message was sent from the originating node on a specified path; wherein the network control message comprises a system management request and system management request metadata , and is received in a packet of a path-oriented network control protocol; analyzing the system management request to determine a particular system management function to perform at the first node; performing , at the first node, the particular system management function; generating a response payload indicating a result generated by causing performing the particular system management function; concatenating the response payload to a network control message or an existing message containing one or more other response payloads from one or more other nodes along the network path; transmitting a concatenated response payload to the originating node using the path-oriented network control protocol; and relaying the network control message received at first node to a second node using the path-oriented network control protocol; wherein the method is performed by one or more processors.
A method for semantically querying a hierarchically tree-structured database (DB) by an ETSI-machine-to-machine application (SA), M2MA, characterized in that the database (DB) comprises hierarchically tree-structured application resources, and wherein the following steps are performed: a) Retrieving semantic information from relations between application resources, an application resource representing a device of an ETSI M2M system, b) Annotating said retrieved semantic information to said application resources as an attribute or property, c) Storing said application resources in said hierarchically tree-structured database, d) Issuing a semantic query for the database (DB) by said M2MA, e) Analysing the semantic query by a semantic engine (SE), f) Translating the analysed semantic query by the semantic engine (SE) into one or more queries satisfying a communication protocol of the hierarchical tree resource structure of said database (DB) by extracting the semantic information of the semantic query and embedding the extracted semantic information as payload in a query satisfying the communication protocols of the database (DB) and g) Providing the translated one or more queries to the database (DB) for providing a query result, wherein the database (DB) itself explores application resources (AR) and return identifications of the application resources (AR) matching the semantic information in the payload to the semantic engine (SE), wherein the semantic engine (SE) returns the received results in a semantic response to the machine-to-machine application (SA). a) Retrieving semantic information from relations between application resources, an application resource representing a device of an ETSI M2M system, b) Annotating said retrieved semantic information to said application resources as an attribute or property, c) Storing said application resources in said hierarchically tree-structured database, d) Issuing a semantic query for the database (DB) by said M2MA, e) Analysing the semantic query by a semantic engine (SE), f) Translating the analysed semantic query by the semantic engine (SE) into one or more queries satisfying a communication protocol of the hierarchical tree resource structure of said database (DB) by extracting the semantic information of the semantic query and embedding the extracted semantic information as payload in a query satisfying the communication protocols of the database (DB) and g) Providing the translated one or more queries to the database (DB) for providing a query result,
A termination assembly for coupling to a transducer , the termination assembly comprising: a generally cylindrical plug body having a nose end , a tail end opposite the nose end , and a lock-engaging channel at a position between the tail end and the nose end ; a cable having a first end , a second end , a signal conductor , and a pliable fixing member ; a generally tubular retainer for coupling the transducer to a meter body , the retainer having a central passage , an outer surface, and a bore intersecting the central passage ; and a locking member ; wherein the central passage of the retainer receives at least a portion of the plug body , including the lock-engaging channel , the lock-engaging channel being aligned with the retainer bore ; wherein the locking member is at least partially disposed in the retainer bore and the lock-engaging channel . a generally cylindrical plug body having a nose end , a tail end opposite the nose end , and a lock-engaging channel at a position between the tail end and the nose end ; a cable having a first end , a second end , a signal conductor , and a pliable fixing member ; a generally tubular retainer for coupling the transducer to a meter body , the retainer having a central passage , an outer surface, and a bore intersecting the central passage ; and a locking member ; wherein the central passage of the retainer receives at least a portion of the plug body , including the lock-engaging channel , the lock-engaging channel being aligned with the retainer bore ; wherein the locking member is at least partially disposed in the retainer bore and the lock-engaging channel .
An optical transmission distortion compensation device adapted to compensate a distortion in a receiving device comprising: an I component compensation unit adapted to calculate an I component in which a distortion has been compensated, by forming a first polynomial expressing the distortion of the I component based on an I component and a Q component of a quadrature modulation signal inside the I component compensation unit and multiplying each term of the first polynomial by a first coefficient; a Q component compensation unit adapted to calculate a Q component in which a distortion has been compensated, by forming a second polynomial expressing the distortion of the Q component based on the I component and the Q component of the quadrature modulation signal inside the Q component compensation unit and multiplying each term of the second polynomial by a second coefficient; and a coefficient calculation unit adapted to calculate the first and second coefficients by comparing outputs of the I component compensation unit and the Q component compensation unit and a known signal for each symbol and optimizing the first and second coefficients of each term independently such that errors between the outputs of the I component compensation unit and the Q component compensation unit and the known signal are minimized. an I component compensation unit adapted to calculate an I component in which a distortion has been compensated, by forming a first polynomial expressing the distortion of the I component based on an I component and a Q component of a quadrature modulation signal inside the I component compensation unit and multiplying each term of the first polynomial by a first coefficient; a Q component compensation unit adapted to calculate a Q component in which a distortion has been compensated, by forming a second polynomial expressing the distortion of the Q component based on the I component and the Q component of the quadrature modulation signal inside the Q component compensation unit and multiplying each term of the second polynomial by a second coefficient; and a coefficient calculation unit adapted to calculate the first and second coefficients by comparing outputs of the I component compensation unit and the Q component compensation unit and a known signal for each symbol and optimizing the first and second coefficients of each term independently such that errors between the outputs of the I component compensation unit and the Q component compensation unit and the known signal are minimized.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein - each R 1 and R 2 is, independently, C 11-24 alkyl, C 11-24 alkenyl, or C 11-24 alkynyl; - L 1 is C 1 alkylene; - R 3 is H; - each R 5 and R 6 is C 1-6 alkyl. - each R 1 and R 2 is, independently, C 11-24 alkyl, C 11-24 alkenyl, or C 11-24 alkynyl; - L 1 is C 1 alkylene; - R 3 is H; - each R 5 and R 6 is C 1-6 alkyl.
STED-SPIM microscope, having: an excitation light source transmitting an illumination light beam from a y-direction onto an object to be imaged; and a first detection device detecting fluorescence light emitted by an object in the z-direction and possibly reflected light, wherein the z-direction extends substantially perpendicularly to the y-direction, a first x-scanner scanning the excitation light beam in an x-direction, wherein the x-direction extends substantially perpendicularly to the y-direction and to the z-direction and a plane defined by the x-direction and y-direction is sequentially fully illuminated; characterized in that the first detection device is a camera detecting a 2-dimensional image with location assignment; a light sheet that fully illuminates a volume in the object is created by sequentially scanning the excitation light beam, a deexcitation light source is provided that transmits at least one deexcitation light beam that thins the sequentially produced light sheet in the z-direction, from the y-direction onto the object to be imaged, wherein the deexcitation light beam has at least one intensity maximum that is offset in the z-direction relative to the excitation light beam and is scanned parallel to the excitation light beam in the x-direction, and in that a switch is provided that can be used to select an operating mode between a first operating mode in the form of normal SPIM operation without the addition of the deexcitation light beam and a second operating mode in the form of SPIM-plus-STED operation with the addition of the deexcitation light beam . an excitation light source transmitting an illumination light beam from a y-direction onto an object to be imaged; and a first detection device detecting fluorescence light emitted by an object in the z-direction and possibly reflected light, wherein the z-direction extends substantially perpendicularly to the y-direction, a first x-scanner scanning the excitation light beam in an x-direction, wherein the x-direction extends substantially perpendicularly to the y-direction and to the z-direction and a plane defined by the x-direction and y-direction is sequentially fully illuminated; characterized in that the first detection device is a camera detecting a 2-dimensional image with location assignment; a light sheet that fully illuminates a volume in the object is created by sequentially scanning the excitation light beam, a deexcitation light source is provided that transmits at least one deexcitation light beam that thins the sequentially produced light sheet in the z-direction, from the y-direction onto the object to be imaged, wherein the deexcitation light beam has at least one intensity maximum that is offset in the z-direction relative to the excitation light beam and is scanned parallel to the excitation light beam in the x-direction, and in that a switch is provided that can be used to select an operating mode between a first operating mode in the form of normal SPIM operation without the addition of the deexcitation light beam and a second operating mode in the form of SPIM-plus-STED operation with the addition of the deexcitation light beam .