mhurhangee/patent-ind-claim-en huggingface dataset:
A vessel having a body portion that is at least partially suspended above at least one left moveable hull and at least one right moveable hull , each moveable hull being moveable with respect to the body portion, at least one sensor arranged to sense at least one operational parameter of the vessel, and a controller configured to control a roll attitude of the body portion, the roll attitude (φ) of the body portion being adjustable and controlled during operation in response to said at least one operational parameter, the at least one operational parameter including at least one lateral acceleration parameter , characterised in that the roll attitude (φ) is controlled to ensure that the sum (F R ) of the gravitational force (F G ) and the centrifugal force (F C ) acting on the vessel during a turn has a line of action that is substantially perpendicular to a deck of the vessel.
A composition for use in controlling glycemia in the treatment of diabetes comprising: 3,6-di(fumaryl-4-aminobutyl)-2,5-diketopiperazine and a recombinant human insulin, wherein the composition is manufactured as an ultrarapid acting insulin inhalable composition of up to 12 units of an insulin, said composition is administered in a dose of 60 to 90 units of insulin with a meal.
Heat exchanger for a refrigerant-fluid loop , comprising a heat exchange surface , the heat exchanger comprising a first heat exchange circuit having a first inlet header and a first outlet header between which a first set of tubes longitudinally extends, the first inlet header contributing to delimiting at least two collecting chambers each supplied via at least one inlet orifice , the first outlet header comprising at least one outlet orifice , the heat exchanger comprising a second heat exchange circuit having a second inlet header and a second outlet header between which a second set of tubes longitudinally extends, the second inlet header comprising at least one inlet , the second outlet header contributing to delimiting at least two collecting cavities each opening into at least one outlet , the heat exchanger being characterized in that the tubes of the first set of tubes are stacked alternately with the tubes of the second set of tubes , the heat exchanger comprising a refrigerant-fluid inlet line and a refrigerant-fluid outlet line which are configured to be fluidically connected to the refrigerant-fluid loop , the inlet line being fluidically connected on one side to one of the inlet orifices of the first inlet header and on the other side to the inlet of the second inlet header , the outlet line being fluidically connected to one of the outlet orifices of the second outlet header and to the outlet of the first outlet header , characterized in that the heat exchanger comprises at least one four-way valve capable of adopting a first position in which the four-way valve fluidically connects one of the inlet orifices of the first inlet header to the inlet line and one of the outlets of the second outlet header to the outlet line , and at least one second position in which the four-way valve fluidically connects one of the inlet orifices of the first inlet header to the outlet line and one of the outlets of the second outlet header to the inlet line .
An apparatus for use in a liquid treatment process, the apparatus comprising: an inlet configured to be connected to a source of liquid to be treated; an outlet for discharging liquid from the apparatus; at least one liquid treatment vessel or conduit disposed between the inlet and the outlet, and arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; a source of ultraviolet radiation extending along the liquid treatment vessel or conduit , such that an annular flow volume is defined in the vessel or conduit around the source of ultraviolet radiation; a plurality of rotary devices disposed in the annular flow volume, wherein each of the rotary devices comprises a shaft and one or more blade elements on the shaft; wherein the plurality of rotary devices is distributed circumferentially in the annular flow volume; a plurality of drive mechanisms , each drive mechanism arranged to drive rotation of a respective one of the plurality of rotary devices ; wherein a respective drive mechanism is operable to rotate the blade elements at a speed in excess of 5,000 RPM to induce cavitation in a liquid present in the annular flow volume. an inlet configured to be connected to a source of liquid to be treated; an outlet for discharging liquid from the apparatus; at least one liquid treatment vessel or conduit disposed between the inlet and the outlet, and arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; a source of ultraviolet radiation extending along the liquid treatment vessel or conduit , such that an annular flow volume is defined in the vessel or conduit around the source of ultraviolet radiation; a plurality of rotary devices disposed in the annular flow volume, wherein each of the rotary devices comprises a shaft and one or more blade elements on the shaft; wherein the plurality of rotary devices is distributed circumferentially in the annular flow volume; a plurality of drive mechanisms , each drive mechanism arranged to drive rotation of a respective one of the plurality of rotary devices ; wherein a respective drive mechanism is operable to rotate the blade elements at a speed in excess of 5,000 RPM to induce cavitation in a liquid present in the annular flow volume.
A two-component polyurethane composition with a viscosity of 20 mPas to 3000 mPas (EN ISO 2555, 25 °C), containing - 30 to 70 wt.% polyester and/or polyether polyols having a functionality greater than 2.5 and having a molecular weight of 200 g/mol to 3000 g/mol, - 70 to 30 wt.% of at least one polyisocyanate, - 0.1 to 5 wt.% of additives selected from stabilizers, catalysts and release agents, wherein the composition has an NCO:OH ratio of 2:1 to 1:2 and polyisocyanates are used, wherein 3 to 25 mol.% of the NCO groups of the polyisocyanates are converted to uretonimine and wherein the composition is free from amine-containing constituents and wherein the crosslinked composition has a glass transition temperature of over 100 °C, measured with DSC, DIN 11357. - 30 to 70 wt.% polyester and/or polyether polyols having a functionality greater than 2.5 and having a molecular weight of 200 g/mol to 3000 g/mol, - 70 to 30 wt.% of at least one polyisocyanate, - 0.1 to 5 wt.% of additives selected from stabilizers, catalysts and release agents,
An electrode structure comprising: a base layer comprising a first active material; a plurality of active material plates , a plate of the plurality of active material plates comprising opposing side walls and a lower wall between the side walls, wherein the lower wall is a flat plane, wherein the lower wall is disposed on the base layer, wherein adjacent plates of the plurality of active material plates are spaced apart from each other in a first direction parallel to the top plane of the base layer, and wherein an active material plate of the plurality of active material plates comprises a second active material; and a channel between adjacent plates of the plurality of active material plates, wherein the channel comprises a first channel region defined by adjacent side walls of the adjacent plates, and a second channel region connected to the first channel region and defined by the lower wall of the plate of the plurality of active material plates and the base layer, wherein a width in the first direction of the second channel region (W2) is greater than a width in the first direction of the first channel region (W1), wherein the plurality of active material plates are disposed obliquely on the base layer. a base layer comprising a first active material; a plurality of active material plates , a plate of the plurality of active material plates comprising opposing side walls and a lower wall between the side walls, wherein the lower wall is a flat plane, wherein the lower wall is disposed on the base layer, wherein adjacent plates of the plurality of active material plates are spaced apart from each other in a first direction parallel to the top plane of the base layer, and wherein an active material plate of the plurality of active material plates comprises a second active material; and a channel between adjacent plates of the plurality of active material plates, wherein the channel comprises a first channel region defined by adjacent side walls of the adjacent plates, and a second channel region connected to the first channel region and defined by the lower wall of the plate of the plurality of active material plates and the base layer, wherein a width in the first direction of the second channel region (W2) is greater than a width in the first direction of the first channel region (W1), wherein the plurality of active material plates are disposed obliquely on the base layer.
A method for information transmission, characterized by , comprising: determining a predefined pattern for representing information, wherein the predefined pattern comprises a predefined sequence, and the information comprises Acknowledgement, ACK, or Negative Acknowledgement, NACK; and transmitting the predefined pattern representing the information on a preset time-frequency domain resource, wherein when the predefined pattern is the predefined sequence, the preset time-frequency domain resource comprises a preset time domain resource and a preset frequency domain resource; the preset time domain resource comprises a Transmission Time Interval, TTI, with a duration of K symbols, where K is greater than or equal to 1 and smaller than or equal to 7, and is a positive integer; and the preset frequency domain resource comprises M subcarriers, the M subcarriers being mapped as a comb structure in frequency domain, where a frequency domain offset number N is an integral multiple of 2, and M is an integral multiple of 12, wherein the frequency domain offset indicates an offset of an initial subcarrier index relative to a lowest index of corresponding resource blocks where the M subcarriers being mapped as the comb structure in the frequency domain, and the frequency domain offset number is a total number of the frequency domain offsets. determining a predefined pattern for representing information, wherein the predefined pattern comprises a predefined sequence, and the information comprises Acknowledgement, ACK, or Negative Acknowledgement, NACK; and transmitting the predefined pattern representing the information on a preset time-frequency domain resource, wherein when the predefined pattern is the predefined sequence, the preset time-frequency domain resource comprises a preset time domain resource and a preset frequency domain resource; the preset time domain resource comprises a Transmission Time Interval, TTI, with a duration of K symbols, where K is greater than or equal to 1 and smaller than or equal to 7, and is a positive integer; and the preset frequency domain resource comprises M subcarriers, the M subcarriers being mapped as a comb structure in frequency domain, where a frequency domain offset number N is an integral multiple of 2, and M is an integral multiple of 12, wherein the frequency domain offset indicates an offset of an initial subcarrier index relative to a lowest index of corresponding resource blocks where the M subcarriers being mapped as the comb structure in the frequency domain, and the frequency domain offset number is a total number of the frequency domain offsets.
A Cellular Internet of Things evolved Node B, CIoT eNB comprising baseband processing circuity including one or more processors to: process a Cellular Internet of Things Application Protocol, CIAP, setup request message received from a CIoT gateway, CIoT GW , the CIoT GW comprising a mobility management entity, MME, a serving gateway node, SGW, and a packet gateway node, PGW, wherein the CIAP setup request message is to configure a reduced signaling overhead between the CIoT eNB and the CIoT GW , or between the CIoT eNB and a CIoT user equipment, UE , or a combination thereof; generate a CIAP setup response message to be transmitted to the CIoT GW in response to the CIAP setup request message, wherein the CIAP setup request message and the CIAP response message are transmitted between the CIoT eNB and the CIoT GW , wherein the CIAP setup request message and the CIAP response message are transmitted via an S1 Lite interface between the CIoT eNB and the CIoT GW , wherein the S1 Lite interface comprises a control plane that includes user plane functions, and wherein when the CIAP setup response message does not include user equipment, UE, radio capability information for a UE, the one or more processors are further configured to: generate a UE radio capability information request message to be transmitted to the UE; provide the UE Radio Capability to the CloT GW . process a Cellular Internet of Things Application Protocol, CIAP, setup request message received from a CIoT gateway, CIoT GW , the CIoT GW comprising a mobility management entity, MME, a serving gateway node, SGW, and a packet gateway node, PGW, wherein the CIAP setup request message is to configure a reduced signaling overhead between the CIoT eNB and the CIoT GW , or between the CIoT eNB and a CIoT user equipment, UE , or a combination thereof; generate a CIAP setup response message to be transmitted to the CIoT GW in response to the CIAP setup request message, wherein the CIAP setup request message and the CIAP response message are transmitted between the CIoT eNB and the CIoT GW , wherein the CIAP setup request message and the CIAP response message are transmitted via an S1 Lite interface between the CIoT eNB and the CIoT GW , wherein the S1 Lite interface comprises a control plane that includes user plane functions, and wherein when the CIAP setup response message does not include user equipment, UE, radio capability information for a UE, the one or more processors are further configured to: generate a UE radio capability information request message to be transmitted to the UE; provide the UE Radio Capability to the CloT GW . generate a UE radio capability information request message to be transmitted to the UE; provide the UE Radio Capability to the CloT GW .
A method performed by a first device, the method comprising the steps of: a.) generating (S 202) a first message used to subscribe to a plurality of event streams of a second device, wherein the first message comprises a group identifier, and the group identifier corresponds to the plurality of event streams of the second device; b.) sending (S 203) the first message to the second device; c.) receiving (S 205) a second message from the second device, the second message including a subscription identifier, the subscription identifier being used to identify a subscription generated by the second device based on the group identifier, the subscription being a subscription of the first device to the plurality of event streams of the second device; d.) receiving (S 207) a third message from the second device, the third message including the subscription identifier and data of at least one event stream among the plurality of event streams of the second device; and e.) generating (S 301) a policy based on the received data of the at least one event stream among the plurality of event streams of the second device, the policy being used to indicate to the second device to perform an action corresponding to the at least one event stream, and sending the policy to the second device. a.) generating (S 202) a first message used to subscribe to a plurality of event streams of a second device, wherein the first message comprises a group identifier, and the group identifier corresponds to the plurality of event streams of the second device; b.) sending (S 203) the first message to the second device; c.) receiving (S 205) a second message from the second device, the second message including a subscription identifier, the subscription identifier being used to identify a subscription generated by the second device based on the group identifier, the subscription being a subscription of the first device to the plurality of event streams of the second device; d.) receiving (S 207) a third message from the second device, the third message including the subscription identifier and data of at least one event stream among the plurality of event streams of the second device; and e.) generating (S 301) a policy based on the received data of the at least one event stream among the plurality of event streams of the second device, the policy being used to indicate to the second device to perform an action corresponding to the at least one event stream, and sending the policy to the second device.
A touch system for sensing a touch event, comprising: first and second waveguides ; at least one light source system operably arranged relative to respective input ends of the first and second waveguides and configured to input first and second light beams into the first and second waveguides, respectively; at least one detector system operably arranged relative to respective output ends of the first and second waveguides and configured to interfere and detect the first and second light beams and generate a detector signal representative of the amount of deformation in at least one of the first and second waveguides caused by the touch event; and a controller operably coupled to the at least one light source and the at least one detector and configured to receive the detector signal and from the detector signal, determine a change in the pressure applied at the touch event location based on the amount of deformation; characterised in that the first and second waveguides define first and second separate optical paths that both change by different amounts by the touch event causing an amount of deformation in both the first and second waveguides. first and second waveguides ; at least one light source system operably arranged relative to respective input ends of the first and second waveguides and configured to input first and second light beams into the first and second waveguides, respectively; at least one detector system operably arranged relative to respective output ends of the first and second waveguides and configured to interfere and detect the first and second light beams and generate a detector signal representative of the amount of deformation in at least one of the first and second waveguides caused by the touch event; and a controller operably coupled to the at least one light source and the at least one detector and configured to receive the detector signal and from the detector signal, determine a change in the pressure applied at the touch event location based on the amount of deformation; characterised in that the first and second waveguides define first and second separate optical paths that both change by different amounts by the touch event causing an amount of deformation in both the first and second waveguides.
A method of producing a recombinant protein comprising: (a) disposing a plurality of recombinant mammalian cells into a first culture medium comprised within a vessel to provide a first cell culture; (b) batch culturing the first cell culture to a cell density range of about 1.0 x 10 6 cells/mL to about 5.0 x 10 6 cells/mL; (c) disposing a volume of the first cell culture of step (b) into a second culture medium comprised within a perfusion bioreactor to provide a second cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 0.5 x 10 6 cells/mL; (d) perfusion culturing the second cell culture to a cell density range of between about 5 x 10 6 cells/mL to about 120 x 10 6 cells/mL; (e) disposing a volume of the second cell culture of step (d) into a third culture medium comprised within a production bioreactor to provide a production cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 10 x 10 6 cells/mL; (f) perfusion culturing the production cell culture under conditions that allow the recombinant mammalian cells to secrete a recombinant protein; and (g) harvesting the recombinant protein from the production cell culture. (a) disposing a plurality of recombinant mammalian cells into a first culture medium comprised within a vessel to provide a first cell culture; (b) batch culturing the first cell culture to a cell density range of about 1.0 x 10 6 cells/mL to about 5.0 x 10 6 cells/mL; (c) disposing a volume of the first cell culture of step (b) into a second culture medium comprised within a perfusion bioreactor to provide a second cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 0.5 x 10 6 cells/mL; (d) perfusion culturing the second cell culture to a cell density range of between about 5 x 10 6 cells/mL to about 120 x 10 6 cells/mL; (e) disposing a volume of the second cell culture of step (d) into a third culture medium comprised within a production bioreactor to provide a production cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 10 x 10 6 cells/mL; (f) perfusion culturing the production cell culture under conditions that allow the recombinant mammalian cells to secrete a recombinant protein; and (g) harvesting the recombinant protein from the production cell culture.
A method of handling a tissue sample comprising the steps of: providing a tissue locator (10; 50; 125) having a locator surface with a number of keying elements profiled to provide mechanical keying of an adhesive with the tissue locator, wherein the keying elements are apertures (18; 52; 110; 130); applying the adhesive to the tissue locator, wherein the adhesive is configured and applied to flow into the aperture of the locator surface; placing a tissue sample on the tissue locator; orientating the tissue sample with respect to the tissue locator using the adhesive; and allowing the adhesive to set after the tissue sample has been affixed to the locator surface, wherein one or more keys are formed from the adhesive, wherein the key comprises the flow of adhesive setting into the aperture of the locator surface; and applying a tissue handling procedure to the tissue sample in an oriented position, characterised in that the apertures comprise a taper. providing a tissue locator (10; 50; 125) having a locator surface with a number of keying elements profiled to provide mechanical keying of an adhesive with the tissue locator, wherein the keying elements are apertures (18; 52; 110; 130); applying the adhesive to the tissue locator, wherein the adhesive is configured and applied to flow into the aperture of the locator surface; placing a tissue sample on the tissue locator; orientating the tissue sample with respect to the tissue locator using the adhesive; and allowing the adhesive to set after the tissue sample has been affixed to the locator surface, wherein one or more keys are formed from the adhesive, wherein the key comprises the flow of adhesive setting into the aperture of the locator surface; and applying a tissue handling procedure to the tissue sample in an oriented position, characterised in that the apertures comprise a taper.