mhurhangee/patent-ind-claim-en huggingface dataset:
A method for commissioning a communication gateway of a transportation system with a portable device , the method comprising the steps of: - Establishing (S 1) a first communication connection from the portable device to the communication gateway of the transportation system ; characterised by - Transmitting (S2) configuration data from the portable device to the communication gateway of the transportation system using the established first communication connection , wherein the configuration data comprise a gateway identifier identifying this transportation system ; - Establishing (S3) a second communication connection from the communication gateway to a server unit using the configuration data, - According to the transmitted configuration data, initiating (S4) a communication gateway software deployment from a server unit by using the established second communication connection for commissioning the communication gateway in the transportation system . - Establishing (S 1) a first communication connection from the portable device to the communication gateway of the transportation system ; characterised by - Transmitting (S2) configuration data from the portable device to the communication gateway of the transportation system using the established first communication connection , wherein the configuration data comprise a gateway identifier identifying this transportation system ; - Establishing (S3) a second communication connection from the communication gateway to a server unit using the configuration data, - According to the transmitted configuration data, initiating (S4) a communication gateway software deployment from a server unit by using the established second communication connection for commissioning the communication gateway in the transportation system .
A method for calibrating an in-ear headphone comprising: generating , by an integrated circuit, a sound signal and playing the sound signal at a driver of the in-ear headphone when the in-ear headphone is placed within a user's ear canal; receiving , at a first microphone of the in-ear headphone, a reflected sound signal, wherein the reflected sound signal corresponds to the generated sound signal reflected off the user's ear drum; generating , by the integrated circuit, a frequency response based on the reflected sound signal; generating , by the integrated circuit, the user's ear drum response based on the frequency response, wherein generating the user's ear drum response comprises: determining the length of a user's ear canal from the first minimum of the measured frequency response, and estimating a damping coefficient of the user's ear canal; generating , by the integrated circuit, a second sound signal; modifying , by the integrated circuit, the second sound signal based on the user's ear drum response; and playing the modified second sound signal at the driver. generating , by an integrated circuit, a sound signal and playing the sound signal at a driver of the in-ear headphone when the in-ear headphone is placed within a user's ear canal; receiving , at a first microphone of the in-ear headphone, a reflected sound signal, wherein the reflected sound signal corresponds to the generated sound signal reflected off the user's ear drum; generating , by the integrated circuit, a frequency response based on the reflected sound signal; generating , by the integrated circuit, the user's ear drum response based on the frequency response, wherein generating the user's ear drum response comprises: determining the length of a user's ear canal from the first minimum of the measured frequency response, and estimating a damping coefficient of the user's ear canal; determining the length of a user's ear canal from the first minimum of the measured frequency response, and estimating a damping coefficient of the user's ear canal; generating , by the integrated circuit, a second sound signal; modifying , by the integrated circuit, the second sound signal based on the user's ear drum response; and playing the modified second sound signal at the driver.
A binary ink developer (BID) assembly comprising: a developer roller that is rotatable; an electrically insulating exterior coating of the developer roller to receive ink from an ink supply and to transfer the received ink to a photoconductive imaging cylinder in accordance with an electrostatic image on the imaging cylinder , as the developer roller rotates, and characterised in that the BID assembly further comprises: a charge roller in contact with the electrically insulating exterior coating to place a charge on the exterior coating prior to the exterior coating receiving the ink, wherein the exterior coating is not voltage-biased within the BID assembly . a developer roller that is rotatable; an electrically insulating exterior coating of the developer roller to receive ink from an ink supply and to transfer the received ink to a photoconductive imaging cylinder in accordance with an electrostatic image on the imaging cylinder , as the developer roller rotates, and characterised in that the BID assembly further comprises: a charge roller in contact with the electrically insulating exterior coating to place a charge on the exterior coating prior to the exterior coating receiving the ink, wherein the exterior coating is not voltage-biased within the BID assembly . a charge roller in contact with the electrically insulating exterior coating to place a charge on the exterior coating prior to the exterior coating receiving the ink, wherein the exterior coating is not voltage-biased within the BID assembly .
A method for the detection of SARS-CoV-2 in a plurality of biological samples of living beings, said method comprises the following steps: Providing 2 n biological samples (double sample), each thereof originates from an individual living being out of a group of n individual living beings, wherein n is an integer of 2 - 500, preferably of 3 - 100, further preferably of 5 - 50, and further preferably of 10; Placing the first of said 2 n biological samples (double sample) in individual buffer solution to obtain individual archive samples S A n ; Pooling the second of said 2 n biological samples (double sample) by placing them in common buffer solution and incubating them for a time span allowing the displacement of SARS-CoV-2 and/or SARS-CoV-2 derived material from the sample and its transfer into the common buffer to obtain a pool sample S P . Testing the pool sample S P for the presence of SARS-CoV-2 and/or SARS-CoV-2 derived material; Qualifying each of the n individual living beings as SARS-CoV-2 negative if in step no SARS-CoV-2 and/or SARS-CoV-2 derived material is detected in pool sample S P ; or Testing each of said individual archive sample S A n for the presence of SARS-CoV-2 and/or SARS-CoV-2 derived material if in step SARS-CoV-2 and/or SARS-CoV-2 derived material is detected in pool sample S P , wherein said biological samples are swabs Providing 2 n biological samples (double sample), each thereof originates from an individual living being out of a group of n individual living beings, wherein n is an integer of 2 - 500, preferably of 3 - 100, further preferably of 5 - 50, and further preferably of 10; Placing the first of said 2 n biological samples (double sample) in individual buffer solution to obtain individual archive samples S A n ; Pooling the second of said 2 n biological samples (double sample) by placing them in common buffer solution and incubating them for a time span allowing the displacement of SARS-CoV-2 and/or SARS-CoV-2 derived material from the sample and its transfer into the common buffer to obtain a pool sample S P . Testing the pool sample S P for the presence of SARS-CoV-2 and/or SARS-CoV-2 derived material; Qualifying each of the n individual living beings as SARS-CoV-2 negative if in step no SARS-CoV-2 and/or SARS-CoV-2 derived material is detected in pool sample S P ; or Testing each of said individual archive sample S A n for the presence of SARS-CoV-2 and/or SARS-CoV-2 derived material if in step SARS-CoV-2 and/or SARS-CoV-2 derived material is detected in pool sample S P , wherein said biological samples are swabs
Method of regenerating a filter element for use in a gas purification device , the method comprising: providing the filter element, wherein the filter element comprises a substrate and a filter layer covering an exterior surface of the substrate , wherein the substrate comprises material for containing chemicals effective to remove gas pollutants from a gas, wherein the material of the filter layer is hydrophilic to adsorb liquid solution adsorbents effective in removing said gas pollutants from said gas, and wherein the exterior surface of the substrate covered by the filter layer is hydrophobic so as not to absorb liquid; contacting said filter layer with said liquid solution adsorbents; flowing said gas through the filter element thereby causing said gas pollutants to be removed from said gas; and regenerating the filter element by contacting said filter layer with further liquid solution adsorbents. providing the filter element, wherein the filter element comprises a substrate and a filter layer covering an exterior surface of the substrate , wherein the substrate comprises material for containing chemicals effective to remove gas pollutants from a gas, wherein the material of the filter layer is hydrophilic to adsorb liquid solution adsorbents effective in removing said gas pollutants from said gas, and wherein the exterior surface of the substrate covered by the filter layer is hydrophobic so as not to absorb liquid; contacting said filter layer with said liquid solution adsorbents; flowing said gas through the filter element thereby causing said gas pollutants to be removed from said gas; and regenerating the filter element by contacting said filter layer with further liquid solution adsorbents.
A drive assembly for a medication delivery device, comprising - a piston rod movable from a start position to an end position for medication delivery and resettable from the end position to the start position and - a guide member being in engagement with the piston rod , characterized in that the drive assembly further comprises - an impeding element for impeding a movement of the guide member during a reset of the piston rod , thereby impeding a reset of the piston rod . - a piston rod movable from a start position to an end position for medication delivery and resettable from the end position to the start position and - a guide member being in engagement with the piston rod , - an impeding element for impeding a movement of the guide member during a reset of the piston rod , thereby impeding a reset of the piston rod .
An apparatus comprising: a heater comprising a heating element having a region that does not contain a surface heating portion of the heating element; a thermostat positioned in the region; a medallion coupled to the thermostat; a housing coupled to the medallion; and an urging element configured to mechanically deform to provide vertical movement of the medallion in response to a downward force applied from the object to the thermostat, the thermostat comprising a switch configured to prevent a current from conducting through the heating element when a contact surface experiences a temperature equal to or greater than a temperature limit; characterized in that : the medallion is positioned below a top surface of the heating element, the thermostat comprises the contact surface disposed to make physical contact with an object placed on the surface heating portion; the medallion comprising a medallion aperture shaped to allow the contact surface to extend vertically through the medallion aperture to make physical contact with the object; and the urging element comprises legs welded to the housing, and an urging surface connected to the thermostat and providing an upward force to the thermostat. a heater comprising a heating element having a region that does not contain a surface heating portion of the heating element; a thermostat positioned in the region; a medallion coupled to the thermostat; a housing coupled to the medallion; and an urging element configured to mechanically deform to provide vertical movement of the medallion in response to a downward force applied from the object to the thermostat, the thermostat comprising a switch configured to prevent a current from conducting through the heating element when a contact surface experiences a temperature equal to or greater than a temperature limit; characterized in that : the medallion is positioned below a top surface of the heating element, the thermostat comprises the contact surface disposed to make physical contact with an object placed on the surface heating portion; the medallion comprising a medallion aperture shaped to allow the contact surface to extend vertically through the medallion aperture to make physical contact with the object; and the urging element comprises legs welded to the housing, and an urging surface connected to the thermostat and providing an upward force to the thermostat. the medallion is positioned below a top surface of the heating element, the thermostat comprises the contact surface disposed to make physical contact with an object placed on the surface heating portion; the medallion comprising a medallion aperture shaped to allow the contact surface to extend vertically through the medallion aperture to make physical contact with the object; and the urging element comprises legs welded to the housing, and an urging surface connected to the thermostat and providing an upward force to the thermostat.
Handpiece for dental or surgical applications, comprising: - a head in which is inserted in removable fashion a drilling tool able to be actuated in rotation about an axis of rotation (R) by means of a drive mechanism comprising a drive shaft rotating about the said axis of rotation (R), - a clamping device for the said drilling tool , comprising a chucking clamp disposed inside said drive shaft for axial retention of the said drilling tool with respect to the said axis of rotation (R), the said clamp co-operating with a plunger , and - a push-button being arranged to act upon the said plunger in order to release the said drilling tool ; • wherein the handpiece comprises a permanent magnet arranged symmetrically around the said axis of rotation (R), and wherein the handpiece is characterized in that the said permanent magnet is exerting a force of magnetic attraction (F) on the said plunger in the direction of the said push-button . - a head in which is inserted in removable fashion a drilling tool able to be actuated in rotation about an axis of rotation (R) by means of a drive mechanism comprising a drive shaft rotating about the said axis of rotation (R), - a clamping device for the said drilling tool , comprising a chucking clamp disposed inside said drive shaft for axial retention of the said drilling tool with respect to the said axis of rotation (R), the said clamp co-operating with a plunger , and - a push-button being arranged to act upon the said plunger in order to release the said drilling tool ; • wherein the handpiece comprises a permanent magnet arranged symmetrically around the said axis of rotation (R), and wherein the handpiece is characterized in that the said permanent magnet is exerting a force of magnetic attraction (F) on the said plunger in the direction of the said push-button . • wherein the handpiece comprises a permanent magnet arranged symmetrically around the said axis of rotation (R), and wherein the handpiece is characterized in that the said permanent magnet is exerting a force of magnetic attraction (F) on the said plunger in the direction of the said push-button .
A sensor for detecting a target of interest, comprising: (i) a first electrode, and a first electron conducting molecule covalently attached to the first electrode; and (ii) a first probe conjugated with a second electron conducting molecule, wherein the first probe is configured to bind to the target of interest in solution; wherein the first and second electron conducting molecules are different, wherein the first and the second electron conducting molecule each is selected from an aromatic compound, a pyridine compound, a polyacetylene polymer, a thiophene compound, an azole compound, a polyaniline polymer or a derivative thereof; characterised in that the first probe is covalently and directly bound to the first electron conducting molecule. (i) a first electrode, and a first electron conducting molecule covalently attached to the first electrode; and (ii) a first probe conjugated with a second electron conducting molecule, wherein the first probe is configured to bind to the target of interest in solution;
Method for controlling the primary circuit of a heating system with a primary circuit and a secondary circuit for a heat transfer medium, wherein the primary circuit and the secondary circuit are connected to one another via a heat transfer medium reservoir filled with heat transfer medium, so that a flow connection and a return connection of the primary circuit and a flow connection and a return connection of the secondary circuit open into the heat transfer medium reservoir , wherein a heat generator for heating the heat transfer medium to a primary-side flow temperature and a primary circuit pump for generating a primary-side mass flow of the heat transfer medium are arranged in the primary circuit and a heat consumer is arranged in the secondary circuit, wherein the primary-side mass flow is set such that no flow of heat transfer medium occurs in the heat transfer reservoir between the flow connection and the return connection of the primary circuit and the secondary circuit or such a flow of heat transfer medium in the heat transfer reservoir is minimized, characterized in that in addition to setting the primary-side mass flow, the primary-side flow temperature is set .
A copolymer produced by polymerizing three kinds or more monomers, containing a conjugated diene unit, a non-conjugated olefin unit and an aromatic vinyl unit, wherein: the main chain is formed of an acyclic structure alone, the content of the aromatic vinyl unit is 5 mol% or less of the whole copolymer, the polystyrene-equivalent weight-average molecular weight (Mw) of the copolymer is 100,000 to 9,000,000, and the content of the vinyl bond in the whole conjugated diene unit is 15% or less. the main chain is formed of an acyclic structure alone, the content of the aromatic vinyl unit is 5 mol% or less of the whole copolymer, the polystyrene-equivalent weight-average molecular weight (Mw) of the copolymer is 100,000 to 9,000,000, and the content of the vinyl bond in the whole conjugated diene unit is 15% or less.
Laser microdissection system comprising a microscope which has a reflected-light device , a microscope objective and a laser unit , wherein the beam path (b) of a laser beam of the laser unit runs through the reflected-light device and through the microscope objective and intersects an object plane of the microscope objective at an adjustable point of intersection, characterized in that an electrophoresis unit with an electrophoresis gel is attached below the object plane , wherein the electrophoresis gel has at least one gel pocket and the laser microdissection system comprises positioning means for positioning the electrophoresis gel parallel to the object plane and relative to a defined reference position such that dissectates which are of a specimen that is arrangeable in the object plane and which are obtained by means of the laser beam of the laser unit are able to be captured in the at least one gel pocket , wherein the positioning means are suitable for positioning the electrophoresis gel relative to the specimen .
An apheresis system comprising: a first tube having a lumen, fluidly associated with the needle, configured to move whole blood from a donor through the lumen; a centrifuge configured to spin to cause centrifugal force to act on the whole blood to separate the whole blood into a least a first blood component and a third blood component ; a draw pump engaged with the first tube configured to draw the whole blood into the centrifuge; a blood component collection bladder , configured to be inserted into the centrifuge and fluidly associated with the first tube, and configured to separate the first blood component from the whole blood; a second tube , fluidly associated the blood collection bladder, configured to move the first blood component from the blood component collection bladder; a collection container , fluidly associated with the second tube, configured to extract the first blood component from the apheresis system; a sensor positioned in physical proximity to the second tube and configured to detect when a second blood component is being extracted from the whole blood; and a return pump , engaged with the second tube, and configured to, after the second blood component is detected by the sensor and while the centrifuge continues to spin, force the separated first blood component back towards the blood component collection bladder through the second tube to move at least the third blood component from the blood component collection bladder and back into the donor. a first tube having a lumen, fluidly associated with the needle, configured to move whole blood from a donor through the lumen; a centrifuge configured to spin to cause centrifugal force to act on the whole blood to separate the whole blood into a least a first blood component and a third blood component ; a draw pump engaged with the first tube configured to draw the whole blood into the centrifuge; a blood component collection bladder , configured to be inserted into the centrifuge and fluidly associated with the first tube, and configured to separate the first blood component from the whole blood; a second tube , fluidly associated the blood collection bladder, configured to move the first blood component from the blood component collection bladder; a collection container , fluidly associated with the second tube, configured to extract the first blood component from the apheresis system; a sensor positioned in physical proximity to the second tube and configured to detect when a second blood component is being extracted from the whole blood; and a return pump , engaged with the second tube, and configured to, after the second blood component is detected by the sensor and while the centrifuge continues to spin, force the separated first blood component back towards the blood component collection bladder through the second tube to move at least the third blood component from the blood component collection bladder and back into the donor.