mhurhangee/patent-ind-claim-en huggingface dataset:
A method of perfusion culturing a Chinese hamster ovary (CHO) cell, the method comprising: providing a multi-well plate comprising at least one well comprising a CHO cell disposed in a first liquid culture medium, wherein the first liquid culture medium occupies about 5% to about 70% of the volume of the well; incubating the multi-well plate for a period of time at about 31 °C to about 40 °C and with a rotary agitation of about 320 revolutions per minute (RPM) to about 500 RPM; and continuously, during the period of time, removing a first volume of the first liquid culture medium and adding to the first liquid culture medium a second volume of a second liquid culture medium, wherein the first volume of the first liquid culture medium removed and the second volume of the second liquid culture medium added are about equal, the first volume of the first liquid culture medium is substantially free of CHO cells, and the method results in a viable cell density of between 15 x 10 6 cells/mL and 60 x 10 6 cells/mL in the well. providing a multi-well plate comprising at least one well comprising a CHO cell disposed in a first liquid culture medium, wherein the first liquid culture medium occupies about 5% to about 70% of the volume of the well; incubating the multi-well plate for a period of time at about 31 °C to about 40 °C and with a rotary agitation of about 320 revolutions per minute (RPM) to about 500 RPM; and continuously, during the period of time, removing a first volume of the first liquid culture medium and adding to the first liquid culture medium a second volume of a second liquid culture medium, wherein the first volume of the first liquid culture medium removed and the second volume of the second liquid culture medium added are about equal, the first volume of the first liquid culture medium is substantially free of CHO cells, and the method results in a viable cell density of between 15 x 10 6 cells/mL and 60 x 10 6 cells/mL in the well.
A method for modifying a helicopter comprising a front part , a rear part and a transponder antenna provided with a cable and disposed in the front part , the method comprising: - a providing step to provide a tail boom of the helicopter which extends from the rear part and which comprises a service access opening which provides access to the interior of the tail boom from below and a closure hatch separable from the tail boom and which is intended to close the service access opening , - a removal step to remove the transponder antenna from the front part , - a first drilling step to drill a plurality of holes through the closure hatch , - an assembly step to: - fix the transponder antenna against the external face of the closure hatch using a plurality of fixing elements intended to be inserted into all or part of the plurality of holes, and - pass the cable into at least one of the holes of the plurality of holes such that the cable enters the interior of the tail boom when the closure hatch closes the service access opening . - a providing step to provide a tail boom of the helicopter which extends from the rear part and which comprises a service access opening which provides access to the interior of the tail boom from below and a closure hatch separable from the tail boom and which is intended to close the service access opening , - a removal step to remove the transponder antenna from the front part , - a first drilling step to drill a plurality of holes through the closure hatch , - an assembly step to: - fix the transponder antenna against the external face of the closure hatch using a plurality of fixing elements intended to be inserted into all or part of the plurality of holes, and - pass the cable into at least one of the holes of the plurality of holes such that the cable enters the interior of the tail boom when the closure hatch closes the service access opening . - fix the transponder antenna against the external face of the closure hatch using a plurality of fixing elements intended to be inserted into all or part of the plurality of holes, and - pass the cable into at least one of the holes of the plurality of holes such that the cable enters the interior of the tail boom when the closure hatch closes the service access opening .
An oral product comprising: a body that is wholly receivable in an oral cavity, the body including, a mouth-stable polymer matrix formed of a mouth-stable polymer, the body comprising at least 60 weight percent of the mouth-stable polymer, the mouth-stable polymer matrix comprising a polyurethane; and tobacco fibers embedded in the mouth-stable polymer matrix, the body comprising at least 10 weight percent of the tobacco fibers, wherein the body has a compressibility @250 N of between 45% and 90%, a compressibility @425 N of between 60% and 98%, or a percentage springiness of at least 20%. a body that is wholly receivable in an oral cavity, the body including, a mouth-stable polymer matrix formed of a mouth-stable polymer, the body comprising at least 60 weight percent of the mouth-stable polymer, the mouth-stable polymer matrix comprising a polyurethane; and tobacco fibers embedded in the mouth-stable polymer matrix, the body comprising at least 10 weight percent of the tobacco fibers, wherein a mouth-stable polymer matrix formed of a mouth-stable polymer, the body comprising at least 60 weight percent of the mouth-stable polymer, the mouth-stable polymer matrix comprising a polyurethane; and tobacco fibers embedded in the mouth-stable polymer matrix, the body comprising at least 10 weight percent of the tobacco fibers, wherein the body has a compressibility @250 N of between 45% and 90%, a compressibility @425 N of between 60% and 98%, or a percentage springiness of at least 20%.
A method for adjusting a shooting parameter, comprising: receiving a click signal triggered by a touch on a finder frame displayed on a touchscreen; in response to said click signal, displaying a slide adjusting control corresponding to a shooting parameter; receiving a sliding touch signal indicative of a sliding touch of a curve type acting on the slide adjusting control; and adjusting the shooting parameter according to the sliding touch signal, wherein the shooting parameter comprises at least one of an exposure compensation value, a white balance value, ISO, an aperture value, a focal length and a shutter speed characterized in that : the displaying comprises displaying a slide adjusting control taking the click position as a center of the slide adjusting control; and focusing is performed automatically at the click position of the click signal on the finder frame. receiving a click signal triggered by a touch on a finder frame displayed on a touchscreen; in response to said click signal, displaying a slide adjusting control corresponding to a shooting parameter; receiving a sliding touch signal indicative of a sliding touch of a curve type acting on the slide adjusting control; and adjusting the shooting parameter according to the sliding touch signal, wherein the shooting parameter comprises at least one of an exposure compensation value, a white balance value, ISO, an aperture value, a focal length and a shutter speed characterized in that : the displaying comprises displaying a slide adjusting control taking the click position as a center of the slide adjusting control; and focusing is performed automatically at the click position of the click signal on the finder frame. the displaying comprises displaying a slide adjusting control taking the click position as a center of the slide adjusting control; and focusing is performed automatically at the click position of the click signal on the finder frame.
A thermoelectric generator for an exhaust system of an internal combustion engine; the thermoelectric generator comprising: at least two superimposed feeding elements , each of which is provided with at least one duct designed to be flown through by the exhaust gases, developing along a feeding direction between an inlet opening and an outlet opening and having at least one first heat exchange wall , which is parallel to the feeding direction; at least one cooling element , which is designed to remove heat, is close to the duct and has at least one second heat exchange wall , which is parallel to the first heat exchange wall of a feeding element ; and at least one thermoelectric cell , which is interposed between the duct and the cooling element and has a hot side resting against the first heat exchange wall of a feeding element and a cold side resting against the second heat exchange wall ; wherein each feeding element comprises a front wall , which is rigidly integral to the duct , is perpendicular to the duct and to the first heat exchange wall and has the central inlet opening ; and wherein each feeding element comprises a rear wall , which is rigidly integral to the duct , is perpendicular to the duct and to the first heat exchange wall , is parallel to the front wall and has the central outlet opening ; the thermoelectric generator being characterized in that an upper edge or a lower edge of the front wall or of the rear wall of each feeding element is flared to provide a mechanical interlocking between the two superimposed feeding elements . at least two superimposed feeding elements , each of which is provided with at least one duct designed to be flown through by the exhaust gases, developing along a feeding direction between an inlet opening and an outlet opening and having at least one first heat exchange wall , which is parallel to the feeding direction; at least one cooling element , which is designed to remove heat, is close to the duct and has at least one second heat exchange wall , which is parallel to the first heat exchange wall of a feeding element ; and at least one thermoelectric cell , which is interposed between the duct and the cooling element and has a hot side resting against the first heat exchange wall of a feeding element and a cold side resting against the second heat exchange wall ; wherein each feeding element comprises a front wall , which is rigidly integral to the duct , is perpendicular to the duct and to the first heat exchange wall and has the central inlet opening ; and wherein each feeding element comprises a rear wall , which is rigidly integral to the duct , is perpendicular to the duct and to the first heat exchange wall , is parallel to the front wall and has the central outlet opening ; the thermoelectric generator being characterized in that an upper edge or a lower edge of the front wall or of the rear wall of each feeding element is flared to provide a mechanical interlocking between the two superimposed feeding elements .
A method in a remote unit, the method comprising: determining that a channel parameter corresponding to an active uplink bandwidth part of a serving cell is greater than a predetermined value at a time in which the active uplink bandwidth part is a first bandwidth part, wherein the serving cell is an unlicensed cell; and in response to determining that the channel parameter is greater than the predetermined value: autonomously switching the active uplink bandwidth part from the first uplink bandwidth part to a second uplink bandwidth part configured for the serving cell, wherein switching the active uplink bandwidth part comprises deactivating the first uplink bandwidth part; suspending configured uplink grants on the first uplink bandwidth part; and performing a random access procedure on the unlicensed cell, wherein the channel parameter comprises a measure of listen before talk failures. determining that a channel parameter corresponding to an active uplink bandwidth part of a serving cell is greater than a predetermined value at a time in which the active uplink bandwidth part is a first bandwidth part, wherein the serving cell is an unlicensed cell; and in response to determining that the channel parameter is greater than the predetermined value: autonomously switching the active uplink bandwidth part from the first uplink bandwidth part to a second uplink bandwidth part configured for the serving cell, wherein switching the active uplink bandwidth part comprises deactivating the first uplink bandwidth part; suspending configured uplink grants on the first uplink bandwidth part; and performing a random access procedure on the unlicensed cell, wherein the channel parameter comprises a measure of listen before talk failures. autonomously switching the active uplink bandwidth part from the first uplink bandwidth part to a second uplink bandwidth part configured for the serving cell, wherein switching the active uplink bandwidth part comprises deactivating the first uplink bandwidth part; suspending configured uplink grants on the first uplink bandwidth part; and performing a random access procedure on the unlicensed cell, wherein the channel parameter comprises a measure of listen before talk failures.
A lighting device having wireless resonant coupling, the lighting device comprising: a wireless power transmitter unit including a first coil configured to wirelessly transmit a power waveform; a light module comprising a light source and a second coil located at a distance from the first coil and configured to receive the power waveform, the light module configured to provide a light, wherein the wireless power transmitter unit is configured to provide power to the light module wirelessly by transmitting a power waveform to the light module, characterized in that an amplitude of a fundamental frequency component of the power waveform equals an amplitude of a third harmonic frequency component of the power waveform to minimize differences in the power waveform delivered to the light source at different values of the distance. a wireless power transmitter unit including a first coil configured to wirelessly transmit a power waveform; a light module comprising a light source and a second coil located at a distance from the first coil and configured to receive the power waveform, the light module configured to provide a light, wherein the wireless power transmitter unit is configured to provide power to the light module wirelessly by transmitting a power waveform to the light module, characterized in that an amplitude of a fundamental frequency component of the power waveform equals an amplitude of a third harmonic frequency component of the power waveform to minimize differences in the power waveform delivered to the light source at different values of the distance.
A device-to-device communication method, wherein the method comprises: determining, by a terminal device , a first resource, wherein the first resource is some time-frequency resources in a first resource set, the first resource set is all time-frequency resources that can be used to detect a first transmission resource, and the first transmission resource is a spectrum resource used to transmit first data; and performing, by the terminal device , detection for the first transmission resource in the first resource, wherein the determining, by a terminal device , a first resource comprises: determining, by the terminal device , a target numerical value based on indication by the network device, wherein the target numerical value is used to indicate a time-domain location of the first resource in the first resource set; and determining, by the terminal device , the first resource based on the target numerical value; wherein at least one of a time-domain size, time-domain location, and a frequency-domain width of the first transmission resource is based on related parameters of detection results in some preceding resources in the first resource set. determining, by a terminal device , a first resource, wherein the first resource is some time-frequency resources in a first resource set, the first resource set is all time-frequency resources that can be used to detect a first transmission resource, and the first transmission resource is a spectrum resource used to transmit first data; and performing, by the terminal device , detection for the first transmission resource in the first resource, wherein the determining, by a terminal device , a first resource comprises: determining, by the terminal device , a target numerical value based on indication by the network device, wherein the target numerical value is used to indicate a time-domain location of the first resource in the first resource set; and determining, by the terminal device , the first resource based on the target numerical value; wherein at least one of a time-domain size, time-domain location, and a frequency-domain width of the first transmission resource is based on related parameters of detection results in some preceding resources in the first resource set. determining, by the terminal device , a target numerical value based on indication by the network device, wherein the target numerical value is used to indicate a time-domain location of the first resource in the first resource set; and determining, by the terminal device , the first resource based on the target numerical value; wherein at least one of a time-domain size, time-domain location, and a frequency-domain width of the first transmission resource is based on related parameters of detection results in some preceding resources in the first resource set.
A method for in-line mixing of components of a medical fluid in a mixing system , the medical fluid having a final predetermined composition of pure water, a small-signal-response component, SSR-component, and optionally at least one electrolyte component; the method comprises: providing (S1) a flow of fluid comprising pure water, or a mixture of pure water and an electrolyte component, in a main fluid line ; monitoring (S2), with a concentration sensor , a concentration of the fluid; providing (S3), with an SSR dosing mechanism , the SSR-component into the flow of fluid upstream the concentration sensor ; controlling (S4), with the SSR dosing mechanism , the dosing rate of the SSR-component to an initial dosing rate at which the concentration monitored with the concentration sensor indicates an initial concentration ( c SSR_init ) of the SSR-component in the fluid that is greater than an intended final predetermined concentration ( c SSR_final ) of the SSR-component in the medical fluid, in order to determine a relationship between the dosing rate of the SSR-component and the resulting concentration of the SSR-component in the fluid; downscaling (S5), with the SSR dosing mechanism , the dosing rate of the SSR-component to a final dosing rate ( Q SSR_final ) at which the final predetermined concentration ( c SSR_final ) of the SSR-component in the fluid is achieved, based on the determined relationship. providing (S1) a flow of fluid comprising pure water, or a mixture of pure water and an electrolyte component, in a main fluid line ; monitoring (S2), with a concentration sensor , a concentration of the fluid; providing (S3), with an SSR dosing mechanism , the SSR-component into the flow of fluid upstream the concentration sensor ; controlling (S4), with the SSR dosing mechanism , the dosing rate of the SSR-component to an initial dosing rate at which the concentration monitored with the concentration sensor indicates an initial concentration ( c SSR_init ) of the SSR-component in the fluid that is greater than an intended final predetermined concentration ( c SSR_final ) of the SSR-component in the medical fluid, in order to determine a relationship between the dosing rate of the SSR-component and the resulting concentration of the SSR-component in the fluid; downscaling (S5), with the SSR dosing mechanism , the dosing rate of the SSR-component to a final dosing rate ( Q SSR_final ) at which the final predetermined concentration ( c SSR_final ) of the SSR-component in the fluid is achieved, based on the determined relationship.
An implantable device for reconstituting the contour of a breast comprising a body formed of a bioabsorbable material and having an open framework wherein the body has a length, width, and height, and wherein the open framework comprises a periphery and an array of cross-member elements that impart an ellipsoid profile to the open framework, wherein the open framework comprises framework elements including a base element having the form of a circle or an oval forming the periphery to which base element an array of cross-member elements are attached that provide height to the device, wherein the height of the body is substantially less than the width and length of the body. and wherein the open framework comprises a periphery and an array of cross-member elements that impart an ellipsoid profile to the open framework, wherein the open framework comprises framework elements including a base element having the form of a circle or an oval forming the periphery to which base element an array of cross-member elements are attached that provide height to the device, wherein the height of the body is substantially less than the width and length of the body.
A method of manufacturing leadframes for semiconductor devices, the method comprising: - providing a laminar substrate of laser direct structuring material, the laminar substrate comprising first and second opposed surfaces, - applying laser beam processing (L) to said substrate to provide a first pattern of electrically-conductive formations at the first surface of said substrate , a second pattern of electrically-conductive formations at the second surface of said substrate , and electrically-conductive vias through said substrate between the first surface of said substrate and the second surface of said substrate , the electrically-conductive vias coupled to at least one of the electrically-conductive formations in said first pattern of electrically-conductive formations and said second pattern of electrically-conductive formations. - providing a laminar substrate of laser direct structuring material, the laminar substrate comprising first and second opposed surfaces, - applying laser beam processing (L) to said substrate to provide a first pattern of electrically-conductive formations at the first surface of said substrate , a second pattern of electrically-conductive formations at the second surface of said substrate , and electrically-conductive vias through said substrate between the first surface of said substrate and the second surface of said substrate , the electrically-conductive vias coupled to at least one of the electrically-conductive formations in said first pattern of electrically-conductive formations and said second pattern of electrically-conductive formations.
Griddle pan comprising a base formed in a grid pattern with griddle bars and a rim partly enclosing the base , each griddle bar having an even upper support surface and an even lower support surface , wherein the upper support surface runs in an upper support plane and the lower support surface runs in a lower support plane , each griddle bar having a cross-sectional width (b), seen transversely to a longitudinal axis of the griddle bar and parallel to the support planes , wherein the cross-sectional width (b) increases starting from each support surface up to a central position with a maximum cross-sectional width (B), and wherein the rim has a height (h), which is at least as great as a thickness (d) of the base being a mutual distance of the upper and lower support planes .