mhurhangee/patent-ind-claim-en huggingface dataset:
Method to measure thermo-optical characteristics of fluorescently marked particles in a solution comprising the steps of: (a) providing a sample solution with fluorescently marked particles in a solution within a measurement chamber ; (b) providing a temperature control system for creating a spatial temperature gradient within said sample solution in the measurement chamber by contact heating, electrical heating and/or cooling, wherein the spatial temperature gradient is created on millimeter or micrometer scale; (c) exciting fluorescence of said fluorescently marked particles and detecting fluorescence of the fluorescently marked particles at a first time; (d) creating a spatial temperature gradient within the sample solution in said measurement chamber by means of the temperature control system; (e) exciting fluorescence and detecting fluorescence of the fluorescently marked particles in the sample solution at a, preferably predetermined, second time, or at a, preferably predetermined, second time and at a predetermined location within the spatial temperature gradient, and (f) characterizing the fluorescently marked particles based on said two detections, wherein, in step (a), the measurement chamber is oriented in a defined angle to the direction of gravitation in such a way, that thermal convection is minimized, and/or wherein, in step (b), the spatial temperature gradient is created parallel to the direction of gravitation within said sample solution in the measurement chamber , the side of the measurement chamber with the greater temperature is the upper side to prevent thermal convection. (a) providing a sample solution with fluorescently marked particles in a solution within a measurement chamber ; (b) providing a temperature control system for creating a spatial temperature gradient within said sample solution in the measurement chamber by contact heating, electrical heating and/or cooling, wherein the spatial temperature gradient is created on millimeter or micrometer scale; (c) exciting fluorescence of said fluorescently marked particles and detecting fluorescence of the fluorescently marked particles at a first time; (d) creating a spatial temperature gradient within the sample solution in said measurement chamber by means of the temperature control system; (e) exciting fluorescence and detecting fluorescence of the fluorescently marked particles in the sample solution at a, preferably predetermined, second time, or at a, preferably predetermined, second time and at a predetermined location within the spatial temperature gradient, and (f) characterizing the fluorescently marked particles based on said two detections, wherein, in step (a), the measurement chamber is oriented in a defined angle to the direction of gravitation in such a way, that thermal convection is minimized, and/or wherein, in step (b), the spatial temperature gradient is created parallel to the direction of gravitation within said sample solution in the measurement chamber , the side of the measurement chamber with the greater temperature is the upper side to prevent thermal convection.
A method for detecting a terminal device in an idle state, wherein the method is applied to a network device, and the method comprises: sending a first system message, wherein the first system message comprises a first field, and the first field is used to indicate the terminal device in the idle state to periodically initiate random access; and receiving a random access request sent by the terminal device in the idle state, so that the terminal device in the idle state enters a connected state; wherein the first field specifically comprises a first time period identifier, and the first time period identifier is used to indicate the terminal device to send the random access request to the network device at an interval of a first time period; wherein the first system message further comprises a second field, the second field comprises a second time period identifier, and the second field is used to indicate that duration in which the terminal device remains in the connected state after random access succeeds is a second time period. sending a first system message, wherein the first system message comprises a first field, and the first field is used to indicate the terminal device in the idle state to periodically initiate random access; and receiving a random access request sent by the terminal device in the idle state, so that the terminal device in the idle state enters a connected state; wherein the first field specifically comprises a first time period identifier, and the first time period identifier is used to indicate the terminal device to send the random access request to the network device at an interval of a first time period; wherein the first system message further comprises a second field, the second field comprises a second time period identifier, and the second field is used to indicate that duration in which the terminal device remains in the connected state after random access succeeds is a second time period.
Dough divider for cutting a mass of dough into pieces of dough , comprising a frame in which are provided: - a bowl for containing a quantity of dough with an access opening and a bottom , - a dividing device with a grid consisting of cutting blades for dividing the mass of dough , present on the bottom of the bowl , into pieces of dough , - a drive device for moving the bottom and the grid relative to each other in a substantially vertical direction to allow the cutting blades of the grid to be pushed through the mass of dough so as to form the pieces of dough , wherein the bottom and the grid can extend substantially parallel to each other and can be moved between a remote position in which the mass of dough can rest on the bottom of the bowl without the cutting blades passing through the mass of dough , and a raised position in which the cutting blades pass through the mass of dough when the latter rests on the bottom of the bowl , wherein the drive device comprises at least two arms placed between a support structure secured to the frame and a driven structure , wherein this driven structure is supported by an upper end of a first arm and an upper end of a second arm and comprises the bottom of the bowl or said grid , said arms intersecting on a pivot shaft and being interconnected such that they can pivot around said shaft , wherein drive means are provided making it possible to approach or move away one end of the first arm relative to one end of the second arm in order to raise or lower said driven structure to move the bottom and the grid between the raised position and the remote position. - a bowl for containing a quantity of dough with an access opening and a bottom , - a dividing device with a grid consisting of cutting blades for dividing the mass of dough , present on the bottom of the bowl , into pieces of dough , - a drive device for moving the bottom and the grid relative to each other in a substantially vertical direction to allow the cutting blades of the grid to be pushed through the mass of dough so as to form the pieces of dough , wherein the bottom and the grid can extend substantially parallel to each other and can be moved between a remote position in which the mass of dough can rest on the bottom of the bowl without the cutting blades passing through the mass of dough , and a raised position in which the cutting blades pass through the mass of dough when the latter rests on the bottom of the bowl , wherein the drive device comprises at least two arms placed between a support structure secured to the frame and a driven structure , wherein this driven structure is supported by an upper end of a first arm and an upper end of a second arm and comprises the bottom of the bowl or said grid , said arms intersecting on a pivot shaft and being interconnected such that they can pivot around said shaft , wherein drive means are provided making it possible to approach or move away one end of the first arm relative to one end of the second arm in order to raise or lower said driven structure to move the bottom and the grid between the raised position and the remote position.
A method comprising: a gateway receiver device measuring a received signal strength indicator (RSSI) value of a signal transmitted by a Wi-Fi transmitter device (106-112); the gateway receiver device measuring an electromagnetic fence or field (EMF) value indicative of an interference that is caused by the Wi-Fi transmitter device in an electromagnetic field that is created by an electromagnetic object in the gateway receiver device ; the gateway receiver device determining whether the RSSI value matches any of a plurality of Wi-Fi fingerprints associated with a monitored region and whether the EMF value matches any of a plurality of electromagnetic fingerprints associated with the monitored region ; and when the RSSI value matches one of the plurality of Wi-Fi fingerprints associated with the monitored region and the EMF value matches one of the plurality of electromagnetic fingerprints associated with the monitored region , the gateway receiver device identifying that a location of the Wi-Fi transmitter device (106-112) is within the monitored region . a gateway receiver device measuring a received signal strength indicator (RSSI) value of a signal transmitted by a Wi-Fi transmitter device (106-112); the gateway receiver device measuring an electromagnetic fence or field (EMF) value indicative of an interference that is caused by the Wi-Fi transmitter device in an electromagnetic field that is created by an electromagnetic object in the gateway receiver device ; the gateway receiver device determining whether the RSSI value matches any of a plurality of Wi-Fi fingerprints associated with a monitored region and whether the EMF value matches any of a plurality of electromagnetic fingerprints associated with the monitored region ; and when the RSSI value matches one of the plurality of Wi-Fi fingerprints associated with the monitored region and the EMF value matches one of the plurality of electromagnetic fingerprints associated with the monitored region , the gateway receiver device identifying that a location of the Wi-Fi transmitter device (106-112) is within the monitored region .
A method to facilitate recycling of waste material including waste paper and organic material, comprising the steps of: receiving a plurality of plastic-wrapped compressed bales of the waste material at a waste material recycling location from a remote baling location; thereafter introducing the plurality of plastic-wrapped compressed bales into a re-pulping device at the waste material recycling location; re-pulping the waste paper in a re-pulping device to form a treated waste material including substantially re-pulped waste paper, wherein the re-pulping device is an autoclave and the re-pulping is carried out at an elevated processing temperature in a range of about 100 °C (212 °F) to about 135 °C (275 °F) and a processing pressure in the range of about 0 kPa to about 310 kPa (about 0 psig to about 45 psig) such that the re-pulped waste paper is suitable for making a paper product; and thereafter discharging the treated waste material from the re-pulping device. receiving a plurality of plastic-wrapped compressed bales of the waste material at a waste material recycling location from a remote baling location; thereafter introducing the plurality of plastic-wrapped compressed bales into a re-pulping device at the waste material recycling location; re-pulping the waste paper in a re-pulping device to form a treated waste material including substantially re-pulped waste paper, wherein the re-pulping device is an autoclave and the re-pulping is carried out at an elevated processing temperature in a range of about 100 °C (212 °F) to about 135 °C (275 °F) and a processing pressure in the range of about 0 kPa to about 310 kPa (about 0 psig to about 45 psig) such that the re-pulped waste paper is suitable for making a paper product; and thereafter discharging the treated waste material from the re-pulping device.
A bacterial composition comprising at least one naturally occurring or engineered bacterial strain for use in treating a cancer, in combination with an antineoplastic drug, wherein said at least one bacterial strain expresses the protein of SEQ ID No: 1 or a fragment thereof of at least 9, preferably at least 20 amino acids comprising at least one epitope selected from the group consisting of SEQ ID Nos: 13, 14, 53 to 188 and 209, with the proviso that said at least one bacterial strain is different from (i) the Enterococcus hirae strain 13144 deposited on November 7, 2013 at the CNCM under the number I-4815 (ii) the Enterococcus hirae strain IGR7 deposited on August 31, 2017 at the CNCM under the number I-5224, and (iii) the Enterococcus hirae strain IGR11 deposited on November 27, 2017, at the CNCM under the number I-5261.
Air outlet for discharging air, having a connection piece which can be connected to an air ducting system on a room ceiling and having a front panel from which at least some of an air flow emerges through an air outlet opening wherein an adjusting device for changing the air flow is assigned to the front panel inside the outlet, the distance of which to the front panel is variable, wherein the adjusting device for changing the air flow is vertically movable, wherein the adjusting device for changing the air flow has at least two adjusting discs (12.1, 12.2), in which openings (13.1, 13.2) are formed, the opening width of which is variable, wherein the opening width of one adjusting disc (12.2) can be varied by a grid structure of the other adjusting disc (12.1), wherein the two adjusting discs (12.1, 12.2) are rotatable about a common center axis (M), wherein the adjusting device for changing the air flow is arranged on a support star , which is fixed in the connection piece , wherein an upper adjusting disc (12.1) is connected to the supporting star via a linkage which, when the adjusting device is lowered vertically to change the air flow through the air outlet opening , causes the upper adjusting disc (12.1) to rotate relative to the lower adjusting disc (12.2), wherein the adjusting device has an outer ring which is connected to the combination of adjusting discs via spacers , wherein the outer ring serves to open and close an annular channel between the outer edge of an inlet nozzle and the inner wall of a main guide nozzle , which is formed by the outlet nozzle and the inlet nozzle inside the air outlet, wherein in an upper end position of the adjusting device the openings (13.1, 13.2) in the adjusting discs (12.1, 12.2) are open and the annular channel is closed by the outer ring , while in a lower end position of the adjusting device the openings (13.1, 13.2) in the adjusting discs (12.1, 12.2) are closed and the annular channel is open.
A dispensing apparatus having a dispenser for dispensing a liquid containing at least one cell and/or at least one particle and an optical detection device for optically detecting at least a partial region of the dispenser , which detection device has a light source for emitting an illumination light for illuminating the partial region and a deflection device for deflecting a detection light emanating from the partial region , characterised in that the deflection device deflects the detection light at least twice, in particular exactly twice, wherein the deflection device has at least one prism for deflecting the detection light and/or the illumination light .
A surgical instrument , comprising: an elongate channel (1102") configured to operably support a surgical staple cartridge therein; an anvil (1130") comprising a pair of anvil pins received within corresponding channel slots formed in said elongate channel, each said corresponding channel slot extending along a channel axis; and a closure member configured to move in distal and proximal directions relative to said elongate channel and said anvil, said anvil pins each extending into a corresponding closure slot in said closure member, each closure slot being transverse to said channel slots and configured such that when said closure member is moved in said distal direction, said anvil pins are moved along said channel axis and said anvil is simultaneously pivoted toward said elongate channel, characterised in that said of anvil pins defines the pivot axis that is selectively movable along said channel axis, wherein each said closure slot comprises: a proximal closure slot portion extending along a first closure axis that is transverse to said corresponding channel axis; and a distal closure slot portion extending along a second closure axis that is transverse to said channel axis and offset from said first closure axis. an elongate channel (1102") configured to operably support a surgical staple cartridge therein; an anvil (1130") comprising a pair of anvil pins received within corresponding channel slots formed in said elongate channel, each said corresponding channel slot extending along a channel axis; and a closure member configured to move in distal and proximal directions relative to said elongate channel and said anvil, said anvil pins each extending into a corresponding closure slot in said closure member, each closure slot being transverse to said channel slots and configured such that when said closure member is moved in said distal direction, said anvil pins are moved along said channel axis and said anvil is simultaneously pivoted toward said elongate channel, characterised in that said of anvil pins defines the pivot axis that is selectively movable along said channel axis, wherein each said closure slot comprises: a proximal closure slot portion extending along a first closure axis that is transverse to said corresponding channel axis; and a distal closure slot portion extending along a second closure axis that is transverse to said channel axis and offset from said first closure axis. a proximal closure slot portion extending along a first closure axis that is transverse to said corresponding channel axis; and a distal closure slot portion extending along a second closure axis that is transverse to said channel axis and offset from said first closure axis.
A method of manufacturing a customized sealing member for a customized mask of a pressure support system , the method comprising the steps of: generating surface geometry data of a face of a patient, the surface geometry data corresponding to and representing a surface geometry of the face of the patient, generating customization data using the surface geometry data, the customization data representing how a seal blank should be modified for the patient; wherein the customization data includes first data representing a set of three-dimensional coordinates ; and wherein the generating customization data step further comprises: employing a predetermined algorithm with the surface geometry data to generate the first data, wherein the surface geometry data has second data representing a localized region of the surface geometry; and wherein the employing a predetermined algorithm step further comprises: generating the first data such that the three-dimensional coordinates are each spaced a predetermined distance in a respective predetermined direction from the localized region using the second data; and customizing the seal blank by removing a number of portions of the seal blank using the customization data such that the customized seal blank is shaped according to the customization data. generating surface geometry data of a face of a patient, the surface geometry data corresponding to and representing a surface geometry of the face of the patient, generating customization data using the surface geometry data, the customization data representing how a seal blank should be modified for the patient; wherein the customization data includes first data representing a set of three-dimensional coordinates ; and wherein the generating customization data step further comprises: employing a predetermined algorithm with the surface geometry data to generate the first data, wherein the surface geometry data has second data representing a localized region of the surface geometry; and wherein the employing a predetermined algorithm step further comprises: generating the first data such that the three-dimensional coordinates are each spaced a predetermined distance in a respective predetermined direction from the localized region using the second data; and customizing the seal blank by removing a number of portions of the seal blank using the customization data such that the customized seal blank is shaped according to the customization data. generating the first data such that the three-dimensional coordinates are each spaced a predetermined distance in a respective predetermined direction from the localized region using the second data; and customizing the seal blank by removing a number of portions of the seal blank using the customization data such that the customized seal blank is shaped according to the customization data.
A method by a pipe control node for managing network resources that are used to transport network traffic, the method comprising: allocating network resources to a virtual pipe for transporting a plurality of multimedia streams through a network; monitoring utilization of the network resources by the plurality of multimedia streams transported through the virtual pipe relative to the network resources allocated to the virtual pipe ; and managing the network resources that are used by the plurality of multimedia streams transported through the virtual pipe in response to the monitored utilization, managing the network resources comprising: constraining the network resources used by each of the multimedia streams transported through the virtual pipe in response to a combined utilization of the network resources by the multimedia streams exceeding a defined threshold level. allocating network resources to a virtual pipe for transporting a plurality of multimedia streams through a network; monitoring utilization of the network resources by the plurality of multimedia streams transported through the virtual pipe relative to the network resources allocated to the virtual pipe ; and managing the network resources that are used by the plurality of multimedia streams transported through the virtual pipe in response to the monitored utilization, managing the network resources comprising: constraining the network resources used by each of the multimedia streams transported through the virtual pipe in response to a combined utilization of the network resources by the multimedia streams exceeding a defined threshold level.
A method for the industrial production of kombucha based on a fermented liquid, wherein the liquid is a sacchariferous liquid and is fermented by means of microorganisms in a closed fermentation tank, characterized in that the fermenting liquid is circulated in the fermentation tank and wherein at least a portion of the fermenting liquid is mixed with oxygen or oxygenated air outside the fermentation tank, and then reintroduced into the fermentation tank.