mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: connecting a housing to a fluid system containing an electrorheological fluid in a reservoir , the fluid system comprising a gas remover , wherein connecting the housing to the fluid system connects an interior volume of the housing to an interior volume of the fluid system , wherein the housing is a polymeric housing and the interior volume of the housing comprises first and second chambers connected by a channel (20, 60.1, 60.2, 60.3, 60.4), wherein the housing comprises an electrode coinciding with at least a portion of the channel (20, 60.1, 60.2, 60.3, 60.4); after connecting the housing to the fluid system, pumping the electrorheological fluid through the reservoir while pumping the electrorheological fluid through the housing and through the gas remover ; and after pumping the electrorheological fluid through the housing and through the gas remover , disconnecting the housing from the fluid system , and wherein pumping the electrorheological fluid through the housing comprises: performing a first pumping of the electrorheological fluid through the housing while the housing is in a first orientation, after the first pumping, placing the housing in a second orientation, and performing a second pumping of the electrorheological fluid through the housing in the second orientation. connecting a housing to a fluid system containing an electrorheological fluid in a reservoir , the fluid system comprising a gas remover , wherein connecting the housing to the fluid system connects an interior volume of the housing to an interior volume of the fluid system , wherein the housing is a polymeric housing and the interior volume of the housing comprises first and second chambers connected by a channel (20, 60.1, 60.2, 60.3, 60.4), wherein the housing comprises an electrode coinciding with at least a portion of the channel (20, 60.1, 60.2, 60.3, 60.4); after connecting the housing to the fluid system, pumping the electrorheological fluid through the reservoir while pumping the electrorheological fluid through the housing and through the gas remover ; and after pumping the electrorheological fluid through the housing and through the gas remover , disconnecting the housing from the fluid system , and wherein pumping the electrorheological fluid through the housing comprises: performing a first pumping of the electrorheological fluid through the housing while the housing is in a first orientation, after the first pumping, placing the housing in a second orientation, and performing a second pumping of the electrorheological fluid through the housing in the second orientation. performing a first pumping of the electrorheological fluid through the housing while the housing is in a first orientation, after the first pumping, placing the housing in a second orientation, and performing a second pumping of the electrorheological fluid through the housing in the second orientation.
A data processing method, wherein the method is applied to a storage system, and the storage system comprises a host and a flash device, wherein multiple over provisioning levels are configured for physical storage space of the flash device according to multiple different over provisioning ratios, each over provisioning level is corresponding to an interval of a user storage space capacity, the over provisioning ratio is a ratio of an over provisioning space capacity to the user storage space capacity, and if the flash device has not been used or formatted, the over provisioning space capacity is set according to a default over provisioning level; and the method is performed by the flash device and comprises: receiving (S101) an operation instruction sent by the host; performing (S101), according to the operation instruction, an operation on data stored in the flash device; determining (S101) a size of data that is obtained after the operation and that is saved in the flash device by a user; determining (S102) a target over provisioning level corresponding to an interval of the user storage space capacity according to the size of the data that is obtained after the operation and that is saved in the flash device by the user; and adjusting (S104) the over provisioning space capacity of the flash device based on the target over provisioning level. receiving (S101) an operation instruction sent by the host; performing (S101), according to the operation instruction, an operation on data stored in the flash device; determining (S101) a size of data that is obtained after the operation and that is saved in the flash device by a user; determining (S102) a target over provisioning level corresponding to an interval of the user storage space capacity according to the size of the data that is obtained after the operation and that is saved in the flash device by the user; and adjusting (S104) the over provisioning space capacity of the flash device based on the target over provisioning level.
A liquid dispenser to supply liquid to an animal, comprising: a container configured to store liquid and having a bottom and an upper opening; a pump provided in the bottom of the container , the pump having an inlet to suction liquid stored in the container and an outlet to discharge the liquid; a lid configured to close the upper opening of the container , the lid having a hole through which liquid discharged from the pump flows; and a base to support the container and including a thermoelectric device and a controller (C), wherein the thermoelectric device is suitable to change a temperature of liquid in the container , the controller (C) being suitable to control an operation of the pump and thermoelectric device , the base has a recess provided under the container , and the bottom of the container has an opening provided within the recess of the base . a container configured to store liquid and having a bottom and an upper opening; a pump provided in the bottom of the container , the pump having an inlet to suction liquid stored in the container and an outlet to discharge the liquid; a lid configured to close the upper opening of the container , the lid having a hole through which liquid discharged from the pump flows; and a base to support the container and including a thermoelectric device and a controller (C), wherein the thermoelectric device is suitable to change a temperature of liquid in the container , the controller (C) being suitable to control an operation of the pump and thermoelectric device , the base has a recess provided under the container , and the bottom of the container has an opening provided within the recess of the base .
A device for photonic generation of linearly frequency modulated arbitrary microwave signals, said device comprising, in this order, a laser emitting a continuous signal at a first optical frequency, an assembly for spectrally and temporally shaping said continuous signal and a photoreceiver , the pass-band of which is in the domain of microwave frequencies, characterised in that the assembly for spectrally and temporally shaping comprises at least: - one first Y-shaped optical splitter disposed at the output of the laser; - one first optical channel disposed at the output of the first branch of the first Y-shaped optical splitter, said first optical channel being a frequency shift loop, said frequency shift loop comprising an X-shaped optical splitter , a first optical amplifier , a first optical filter , an optical isolator and an acousto-optical frequency shifter disposed between two branches of the X-shaped optical splitter; - a second optical channel disposed at the output of the second branch of the first Y-shaped optical splitter, said second optical channel comprising an electro-optical frequency shifter ; - a second Y-shaped optical splitter , the first branch of which is disposed at the output of the first optical channel and the second branch of which is disposed at the output of the second optical channel; - a second optical amplifier disposed at the common output of the second Y-shaped optical splitter; - a second optical filter disposed between the output of the second optical amplifier and the photoreceiver; with at least the acousto-optical shift frequency , the electro-optical shift frequency and the amplification gain of the first optical amplifier being adjustable. - one first Y-shaped optical splitter disposed at the output of the laser; - one first optical channel disposed at the output of the first branch of the first Y-shaped optical splitter, said first optical channel being a frequency shift loop, said frequency shift loop comprising an X-shaped optical splitter , a first optical amplifier , a first optical filter , an optical isolator and an acousto-optical frequency shifter disposed between two branches of the X-shaped optical splitter; - a second optical channel disposed at the output of the second branch of the first Y-shaped optical splitter, said second optical channel comprising an electro-optical frequency shifter ; - a second Y-shaped optical splitter , the first branch of which is disposed at the output of the first optical channel and the second branch of which is disposed at the output of the second optical channel; - a second optical amplifier disposed at the common output of the second Y-shaped optical splitter; - a second optical filter disposed between the output of the second optical amplifier and the photoreceiver;
A humanised antibody or fragment thereof which is capable of binding Lymphocyte Activation Gene 3 (LAG-3) and which comprises a) the variable light chain (VL) of SEQ ID NO. 4 and b) the variable heavy chain (VH) of SEQ ID NO. 9.
System comprising a buriable well for housing and protecting electrohydraulic apparatuses (A) of irrigation systems and a plurality of support means , the well comprising a main body for housing said electrohydraulic apparatuses (A) and a cover , applied onto an upper opening of said main body , the main body also being provided with one or more further openings , provided on the base and/or on the side walls of said main body , to allow the passage of the electrical and/or hydraulic supply lines of said electrohydraulic apparatuses (A), said main body containing at least one support structure for said electrohydraulic apparatuses (A), wherein on predetermined portions of said support structure a plurality of holes is formed, characterised in that said holes are adapted for receiving said corresponding plurality of support means configured to hold one or more electrohydraulic apparatuses (A), wherein said support structure is made in the form of a grid consisting of a plurality of longitudinal ribs and a plurality of transverse ribs interconnected to each other, and wherein each support means is provided at the bottom with a stem able to snap-fit with a respective hole , above the stem , formed as an enbloc therewith, wherein a fork is provided, which is configured to releasably receive, by snap-fitting or by shape coupling, an electrohydraulic apparatus (A) or a portion thereof.
A method for obtaining a curved laminated glazing unit, especially for a windshield or roof of a motor vehicle, comprising the following successive steps: a. providing a first glass sheet , covered on at least part of one of its surfaces with a stack of thin layers , b. a step of depositing, on a part of the surface of the stack of thin layers , a layer of enamel , the deposition being carried out by screen-printing an enamel composition comprising 1 to 15% by weight of zinc oxide particles having a particle size distribution by volume such that d90 is at most 5 μm, c. a step of bending the first glass sheet , the stack of thin layers located under the enamel layer being completely dissolved by said enamel layer at least at the end of this step, then d. a step of laminating said first glass sheet with an additional glass sheet by means of a lamination interlayer , so that the enamel layer faces said interlayer . a. providing a first glass sheet , covered on at least part of one of its surfaces with a stack of thin layers , b. a step of depositing, on a part of the surface of the stack of thin layers , a layer of enamel , the deposition being carried out by screen-printing an enamel composition comprising 1 to 15% by weight of zinc oxide particles having a particle size distribution by volume such that d90 is at most 5 μm, c. a step of bending the first glass sheet , the stack of thin layers located under the enamel layer being completely dissolved by said enamel layer at least at the end of this step, then d. a step of laminating said first glass sheet with an additional glass sheet by means of a lamination interlayer , so that the enamel layer faces said interlayer .
A failure recovery method for a virtual network, comprising: determining(S401) that a physical link (B-G) in a physical network fails, wherein the failed physical link (B-G) corresponds to at least one virtual link (vNE1-vNE2) in the virtual network; and mapping(S402) the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G) to a non-failed physical resource (B-A-F) in the physical network, wherein the non-failed physical resource satisfies a transmission bandwidth of each of the at least one virtual link; wherein after the mapping the at least one virtual link corresponding to the failed physical link to the non-failed physical resource in the physical network, the method comprises: determining a virtual connection (vNE1-vNE2- vNE3) exists on the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G); and mapping the virtual connection (vNE1-vNE2-vNE3) into a new physical connection (B-A-F-D) established by the non-failed physical resource (B-A-F), wherein the new physical connection satisfies a transmission bandwidth of the virtual connection. determining(S401) that a physical link (B-G) in a physical network fails, wherein the failed physical link (B-G) corresponds to at least one virtual link (vNE1-vNE2) in the virtual network; and mapping(S402) the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G) to a non-failed physical resource (B-A-F) in the physical network, wherein the non-failed physical resource satisfies a transmission bandwidth of each of the at least one virtual link; wherein after the mapping the at least one virtual link corresponding to the failed physical link to the non-failed physical resource in the physical network, the method comprises: determining a virtual connection (vNE1-vNE2- vNE3) exists on the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G); and mapping the virtual connection (vNE1-vNE2-vNE3) into a new physical connection (B-A-F-D) established by the non-failed physical resource (B-A-F), wherein the new physical connection satisfies a transmission bandwidth of the virtual connection. determining a virtual connection (vNE1-vNE2- vNE3) exists on the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G); and mapping the virtual connection (vNE1-vNE2-vNE3) into a new physical connection (B-A-F-D) established by the non-failed physical resource (B-A-F), wherein the new physical connection satisfies a transmission bandwidth of the virtual connection.
Fireplaces and fireplace inserts for solid fuel with increased thermal efficiency and reduced emissions of solid pollutants, containing a combustion chamber and a flue pathway, characterized in that there is an adjustable slot between a back wall and an upper wall of the combustion chamber, designed for exhausting combustion products; • In the first part of the flue pathway, there is a settling space bounded by a part of the back wall of the combustion chamber and a part of a back wall of the flue pathway made of a heat-conducting material, and the settling space contains a combustion product flow directing element A which is located opposite the adjustable slot ; • in the second part of the flue pathway, there is a vertical channel formed by the part of the back wall of the flue pathway and a directing element B and the walls of the flue pathway are made of a heat-conducting material; • in the third part of the flue pathway, there is a cooling-settling space containing a combustion product flow directing element C , which is attached to a wall of a chimney flange and its height is smaller than the height of the third part of the flue pathway, and thus between a bottom wall of the flue pathway and the directing element C there is a space X for the flow of combustion products, wherein the directing element C has the shape of a pipe and an outer wall of the third part of the flue pathway is made of a heat-conducting material; the first part of the flue pathway is connected to the second part of the flue through an opening Z and the second part of the flue pathway is connected to the third part of the flue pathway through an opening Y . • In the first part of the flue pathway, there is a settling space bounded by a part of the back wall of the combustion chamber and a part of a back wall of the flue pathway made of a heat-conducting material, and the settling space contains a combustion product flow directing element A which is located opposite the adjustable slot ; • in the second part of the flue pathway, there is a vertical channel formed by the part of the back wall of the flue pathway and a directing element B and the walls of the flue pathway are made of a heat-conducting material; • in the third part of the flue pathway, there is a cooling-settling space containing a combustion product flow directing element C , which is attached to a wall of a chimney flange and its height is smaller than the height of the third part of the flue pathway, and thus between a bottom wall of the flue pathway and the directing element C there is a space X for the flow of combustion products, wherein the directing element C has the shape of a pipe and an outer wall of the third part of the flue pathway is made of a heat-conducting material;
A system, comprising: hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: receiving measurements of dynamic feature data for a geographic region ; determining static features for the geographic region ; generating a predicted background noise loudness in the geographic region during a defined time period using a model , the model trained on training data including historical measurements of the dynamic feature data for a plurality of regions over a plurality of training time periods and static features of the plurality of regions, wherein the geographic region is absent from the plurality of regions, wherein the defined time period occurs after the plurality of training time periods; and characterised in that the operations further comprise: determining a selected route for an aerial vehicle based on the predicted background noise loudness in the geographic region . hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: receiving measurements of dynamic feature data for a geographic region ; determining static features for the geographic region ; receiving measurements of dynamic feature data for a geographic region ; determining static features for the geographic region ; generating a predicted background noise loudness in the geographic region during a defined time period using a model , the model trained on training data including historical measurements of the dynamic feature data for a plurality of regions over a plurality of training time periods and static features of the plurality of regions, wherein the geographic region is absent from the plurality of regions, wherein the defined time period occurs after the plurality of training time periods; and characterised in that the operations further comprise: determining a selected route for an aerial vehicle based on the predicted background noise loudness in the geographic region .
An apparatus comprising: a first transfer roller with a first length to provide a coating fluid to a medium ; a first pickup roller including a first contact part which applies the coating fluid to a first portion of the first transfer roller ; a second pickup roller including a second contact part which applies the coating fluid to a second portion of the first transfer roller ; and a coating applicator to provide the coating fluid to the first pickup roller and the second pickup roller ; characterised in that the first contact part is moveable along a first longitudinal axis of the first pickup roller and the second contact part is movable along a second longitudinal axis of the second pickup roller such that the first contact part and the second contact part are positioned with respect to each other as to apply coating fluid of a continuous total longitudinal length to the first transfer roller at a certain location. a first transfer roller with a first length to provide a coating fluid to a medium ; a first pickup roller including a first contact part which applies the coating fluid to a first portion of the first transfer roller ; a second pickup roller including a second contact part which applies the coating fluid to a second portion of the first transfer roller ; and a coating applicator to provide the coating fluid to the first pickup roller and the second pickup roller ; characterised in that the first contact part is moveable along a first longitudinal axis of the first pickup roller and the second contact part is movable along a second longitudinal axis of the second pickup roller such that the first contact part and the second contact part are positioned with respect to each other as to apply coating fluid of a continuous total longitudinal length to the first transfer roller at a certain location.
A method for data transmission, comprising: encapsulating (S110) a first media access control, MAC, control element, CE, and a second MAC CE to a first transport block, and encapsulating a third MAC CE and a fourth MAC CE to a second transport block, wherein the first MAC CE and the third MAC CE are the same MAC CE, the second MAC CE is used for indicating a MAC CE which is the same as the first MAC CE, and the fourth MAC CE is used for indicating a MAC CE which is the same as the third MAC CE; and sending (S 120) the first transport block to a receiving end device through a first carrier, and sending the second transport block to the receiving end device through a second carrier. encapsulating (S110) a first media access control, MAC, control element, CE, and a second MAC CE to a first transport block, and encapsulating a third MAC CE and a fourth MAC CE to a second transport block, wherein the first MAC CE and the third MAC CE are the same MAC CE, the second MAC CE is used for indicating a MAC CE which is the same as the first MAC CE, and the fourth MAC CE is used for indicating a MAC CE which is the same as the third MAC CE; and sending (S 120) the first transport block to a receiving end device through a first carrier, and sending the second transport block to the receiving end device through a second carrier.