mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft galley insert, comprising: a control unit including a control unit housing wherein the control unit housing comprises a base plate coupled to a control unit cover, and wherein the base plate comprises at least one of a molded aluminum structure, a casted aluminum structure, a titanium structure, or a steel structure; one or more electronic components at least partially contained within the control unit housing, wherein at least one electronic component of the one or more electronic components is coupled to the control unit housing; and one or more operating load components electrically coupled to the at least one electronic component via one or more electrical lines, wherein the control unit housing is configured to provide a grounding path for radiated emissions produced by the at least one electronic component by transferring radiated emissions back to the at least one electronic component; and characterized in that : the base plate includes one or more stand-offs , wherein the base plate is coupled to a printed circuit board at the one or more stand-offs; and wherein the control unit housing is further configured to thermally couple to the at least one electronic component and dissipate heat from the at least one electronic component. a control unit including a control unit housing wherein the control unit housing comprises a base plate coupled to a control unit cover, and wherein the base plate comprises at least one of a molded aluminum structure, a casted aluminum structure, a titanium structure, or a steel structure; one or more electronic components at least partially contained within the control unit housing, wherein at least one electronic component of the one or more electronic components is coupled to the control unit housing; and one or more operating load components electrically coupled to the at least one electronic component via one or more electrical lines, wherein the control unit housing is configured to provide a grounding path for radiated emissions produced by the at least one electronic component by transferring radiated emissions back to the at least one electronic component; and characterized in that : the base plate includes one or more stand-offs , wherein the base plate is coupled to a printed circuit board at the one or more stand-offs; and wherein the control unit housing is further configured to thermally couple to the at least one electronic component and dissipate heat from the at least one electronic component.
An industrial roll , comprising: a substantially cylindrical metallic core ; a base layer that is adhered to and circumferentially overlies the core , the base layer having a thickness of between 1.5875 mm and 25.4 mm (0.0625 inch and 1 inch); a polymeric topstock layer that circumferentially overlies the base layer ; and a hydrophobic and/or amphiphobic coating that circumferentially overlies the topstock layer , characterized in that the hydrophobic and/or amphiphobic coating has a contact angle greater than 120° for water and an organic fluid, the organic fluid being a hydrophobic compound comprising carbon and hydrogen, and in that the hydrophobic and/or amphiphobic coating comprises polytetrafluoroethylene (PFTE), a hydrophobic diatomaceous earth, and a matrix material comprising polyurethane in a ratio of about 1 part to about 50 parts by weight of PTFE against 100 parts by weight of polyurethane, and about 1 part to about 50 parts by weight of hydrophobic diatomaceous earth against 100 parts by weight of the polyurethane. a substantially cylindrical metallic core ; a base layer that is adhered to and circumferentially overlies the core , the base layer having a thickness of between 1.5875 mm and 25.4 mm (0.0625 inch and 1 inch); a polymeric topstock layer that circumferentially overlies the base layer ; and a hydrophobic and/or amphiphobic coating that circumferentially overlies the topstock layer , characterized in that the hydrophobic and/or amphiphobic coating has a contact angle greater than 120° for water and an organic fluid, the organic fluid being a hydrophobic compound comprising carbon and hydrogen, and in that the hydrophobic and/or amphiphobic coating comprises polytetrafluoroethylene (PFTE), a hydrophobic diatomaceous earth, and a matrix material comprising polyurethane in a ratio of about 1 part to about 50 parts by weight of PTFE against 100 parts by weight of polyurethane, and about 1 part to about 50 parts by weight of hydrophobic diatomaceous earth against 100 parts by weight of the polyurethane.
A device for analyzing an environment, including: - a first layer (I) having a face including a plurality of sensors of the MEMS an/or NEMS type respectively including at least one mobile component capable of reacting to one or more characteristic stimuli of the environment, said mobile component being suspended relatively to a fixed portion, and each mobile component being able to move independently from the other mobile components, - a second layer (II) including means for controlling the sensors and processing information transmitted by the sensors , said control and processing means being electrically connected to the sensors , and - a distribution layer (IV) positioned on the first layer (I) on the side of the face including the sensors including means for spatially and temporally distributing the stimulus or stimuli to said sensors , said distributing means comprising a plurality of fluidic channels to bring onto respective sensors or groups of sensors independently the stimulus or the stimuli simultaneously or quasi simultaneously. - a first layer (I) having a face including a plurality of sensors of the MEMS an/or NEMS type respectively including at least one mobile component capable of reacting to one or more characteristic stimuli of the environment, said mobile component being suspended relatively to a fixed portion, and each mobile component being able to move independently from the other mobile components, - a second layer (II) including means for controlling the sensors and processing information transmitted by the sensors , said control and processing means being electrically connected to the sensors , and - a distribution layer (IV) positioned on the first layer (I) on the side of the face including the sensors including means for spatially and temporally distributing the stimulus or stimuli to said sensors , said distributing means comprising a plurality of fluidic channels to bring onto respective sensors or groups of sensors independently the stimulus or the stimuli simultaneously or quasi simultaneously.
An apparatus comprising: - at least four magnetic cores , wherein each core is configured to support an inductor of a filter circuit, wherein each core is supported on either side by a base , wherein each core comprises: - a first section , and - a second section separated from the first section by an adhesive layer ; wherein the apparatus is characterized by : - a separator configured to separate the at least four magnetic cores from one another, wherein the separator comprises a set of focusing projections defining a hollow cavity , wherein the separator encloses an air core structure configured to store magnetic energy when subjected to a magnetic flux, and wherein individual focusing projections of the set of focusing projections are disposed on different sides of the hollow cavity to focus a magnetic field from the at least four magnetic cores through the hollow cavity . - at least four magnetic cores , wherein each core is configured to support an inductor of a filter circuit, wherein each core is supported on either side by a base , wherein each core comprises: - a first section , and - a second section separated from the first section by an adhesive layer ; wherein the apparatus is characterized by : - a separator configured to separate the at least four magnetic cores from one another, wherein the separator comprises a set of focusing projections defining a hollow cavity , wherein the separator encloses an air core structure configured to store magnetic energy when subjected to a magnetic flux, and wherein individual focusing projections of the set of focusing projections are disposed on different sides of the hollow cavity to focus a magnetic field from the at least four magnetic cores through the hollow cavity .
A method comprising: receiving , at a computing device , a request to activate a policy for the computing device , the policy indicating that data written by the computing device to a storage volume after activation of the policy be encrypted; activating the policy for the computing device despite one or more sectors of the storage volume being unencrypted, the activating including when data is requested to be written to a sector of the storage volume checking an encrypted chunks map by a read/write module if a chunk including the sector is unencrypted, and if the chunk is unencrypted the read/write module holds the write request to allow the other sectors in the chunk that includes the sector being written to be encrypted, followed by the encryption/decryption control module to encrypt each of the sectors that is read, and writes the encrypted content of each of those sectors to storage volume , and by maintaining a conversion log including identifiers of the sectors of the storage volume that were encrypted and signatures of the sectors of the storage volume storing encrypted data, and wherein the encrypted chunks map identifies which chunks of sectors of the storage volume are encrypted, wherein the encrypted chunks map identifies whether each chunk of sectors of the storage volume are unencrypted, encrypted, or not in use; and returning , in response to the request, the indication of compliance with the policy despite one or more sectors of the storage volume being unencrypted. receiving , at a computing device , a request to activate a policy for the computing device , the policy indicating that data written by the computing device to a storage volume after activation of the policy be encrypted; activating the policy for the computing device despite one or more sectors of the storage volume being unencrypted, the activating including when data is requested to be written to a sector of the storage volume checking an encrypted chunks map by a read/write module if a chunk including the sector is unencrypted, and if the chunk is unencrypted the read/write module holds the write request to allow the other sectors in the chunk that includes the sector being written to be encrypted, followed by the encryption/decryption control module to encrypt each of the sectors that is read, and writes the encrypted content of each of those sectors to storage volume , and by maintaining a conversion log including identifiers of the sectors of the storage volume that were encrypted and signatures of the sectors of the storage volume storing encrypted data, and wherein the encrypted chunks map identifies which chunks of sectors of the storage volume are encrypted, wherein the encrypted chunks map identifies whether each chunk of sectors of the storage volume are unencrypted, encrypted, or not in use; and returning , in response to the request, the indication of compliance with the policy despite one or more sectors of the storage volume being unencrypted.
A battery module comprising: a plurality of cylindrical cells , each of the cylindrical cells having a vent means located at a first end of the cylindrical cell , wherein the first ends of at least some of the cylindrical cells are substantially coplanar; a busbar assembly, wherein at least a portion of the busbar assembly is located adjacent to the coplanar first ends of the cylindrical cells and wherein the portion of the busbar assembly adjacent to the coplanar first ends comprises a collection plate having one or more apertures or voids ; a plurality of discrete portions of a non-combustible compound , at least some of the portions each being located within a respective one of the apertures or voids and adjacent to the first end of at least one of the cylindrical cells ; and a pad located adjacent to the busbar assembly, wherein the pad at least partially covers the apertures or voids . a plurality of cylindrical cells , each of the cylindrical cells having a vent means located at a first end of the cylindrical cell , wherein the first ends of at least some of the cylindrical cells are substantially coplanar; a busbar assembly, wherein at least a portion of the busbar assembly is located adjacent to the coplanar first ends of the cylindrical cells and wherein the portion of the busbar assembly adjacent to the coplanar first ends comprises a collection plate having one or more apertures or voids ; a plurality of discrete portions of a non-combustible compound , at least some of the portions each being located within a respective one of the apertures or voids and adjacent to the first end of at least one of the cylindrical cells ; and a pad located adjacent to the busbar assembly, wherein the pad at least partially covers the apertures or voids .
An apparatus for a User Equipment, UE , the apparatus comprising transceiver circuitry and hardware processing circuitry, the hardware processing circuitry to configure the transceiver circuitry to: receive a radio-resource control, RRC, message from an enhanced node B, eNB, the RRC message indicating a first bitmap and a second bitmap , wherein the first bitmap indicates subframes that are available for Device-to-Device, D2D, communication, and wherein the second bitmap corresponds to a Time Resource Pattern of Transmission, T-RPT , the T-RPT comprising a subset of the subframes that are available for D2D communication; and generate a signal for a D2D transmission, for direct transmission to another UE , in one or more of the subframes of the subset, wherein the D2D transmission includes data for the other UE . receive a radio-resource control, RRC, message from an enhanced node B, eNB, the RRC message indicating a first bitmap and a second bitmap , wherein the first bitmap indicates subframes that are available for Device-to-Device, D2D, communication, and wherein the second bitmap corresponds to a Time Resource Pattern of Transmission, T-RPT , the T-RPT comprising a subset of the subframes that are available for D2D communication; and generate a signal for a D2D transmission, for direct transmission to another UE , in one or more of the subframes of the subset, wherein the D2D transmission includes data for the other UE .
A bearer establishment method in comprising: configuring , by user equipment, UE, a bearer for the UE by using a pre-stored configuration parameter, wherein the pre-stored configuration parameter comprises an access stratum, AS, configuration parameter and a non-access stratum, NAS, configuration parameter; and sending , by the UE, service data to a base station by using the bearer; wherein the NAS configuration parameter comprises at least one of the following parameters: an identifier of a core network bearer, a quality of service class identifier, QCI, an allocation and retention priority, ARP, a traffic flow template, TFT, a destination gateway address, access point name, APN, information, or an uplink tunnel endpoint identifier, TEID, and the method characterized in that after the sending, by the UE, the service data to the base station by using the bearer, the method further comprises: when a serving cell, in which the UE is located, changes or the base station serving the UE changes, locally reconfiguring, by the UE, a bearer by using the pre-stored configuration parameter; and sending, by the UE, data to a changed-to base station by using the reconfigured bearer. configuring , by user equipment, UE, a bearer for the UE by using a pre-stored configuration parameter, wherein the pre-stored configuration parameter comprises an access stratum, AS, configuration parameter and a non-access stratum, NAS, configuration parameter; and sending , by the UE, service data to a base station by using the bearer; wherein the NAS configuration parameter comprises at least one of the following parameters: an identifier of a core network bearer, a quality of service class identifier, QCI, an allocation and retention priority, ARP, a traffic flow template, TFT, a destination gateway address, access point name, APN, information, or an uplink tunnel endpoint identifier, TEID, and the method characterized in that after the sending, by the UE, the service data to the base station by using the bearer, the method further comprises: when a serving cell, in which the UE is located, changes or the base station serving the UE changes, locally reconfiguring, by the UE, a bearer by using the pre-stored configuration parameter; and sending, by the UE, data to a changed-to base station by using the reconfigured bearer.
A drainer for a floor cleaning equipment, characterized in that , it comprises: - a housing provided with a plurality of water discharge holes at the bottom, at least one water inlet at the top, and defining a cavity inside, the water inlet , the cavity , and the plurality of water discharge holes being in communication sequentially; characterized in that the drainer further comprises : - a plurality of absorbent cores mounted in the cavity of the housing , each of which being partially exposed from a corresponding water discharge hole , so that the absorbent cores can guide water entering the cavity to the exterior of the housing through the water discharge holes . - a housing provided with a plurality of water discharge holes at the bottom, at least one water inlet at the top, and defining a cavity inside, the water inlet , the cavity , and the plurality of water discharge holes being in communication sequentially; - a plurality of absorbent cores mounted in the cavity of the housing , each of which being partially exposed from a corresponding water discharge hole , so that the absorbent cores can guide water entering the cavity to the exterior of the housing through the water discharge holes .
A composition comprising (a) microparticles which comprise cinmethylin and a polymeric material which surrounds or embeds cinmethylin; and (b) at least one herbicide different from cinmethylin which is selected from the group consisting of quinmerac, picolinafen and diflufenican; where the at least one herbicide different from cinmethylin is not present in the microparticles; where the microparticles are microcapsules comprising a shell and a core, where the core comprises cinmethylin and the shell comprises polyurea obtainable by polyaddition reaction of at least one aliphatic or aromatic polyisocyanate and at least one aliphatic polyamine; where the polyisocyanate is selected from the group consisting of hexamethylene diisocyanate, isophorone diisocyanate, diphenylmethane-4,4'-diisocyanate, toluene diisocyanates, and oligomeric isocyanates; and where the polyamine is an α,ω-diamine of the formula H 2 N-(CH 2 ) p -NH 2 , wherein p is an integer from 2 to 6; where the composition contains the microparticles in an amount of from 30 to 60% by weight, based on the total weight of the composition. (a) microparticles which comprise cinmethylin and a polymeric material which surrounds or embeds cinmethylin; and (b) at least one herbicide different from cinmethylin which is selected from the group consisting of quinmerac, picolinafen and diflufenican; where the at least one herbicide different from cinmethylin is not present in the microparticles; where the microparticles are microcapsules comprising a shell and a core, where the core comprises cinmethylin and the shell comprises polyurea obtainable by polyaddition reaction of at least one aliphatic or aromatic polyisocyanate and at least one aliphatic polyamine; where the polyisocyanate is selected from the group consisting of hexamethylene diisocyanate, isophorone diisocyanate, diphenylmethane-4,4'-diisocyanate, toluene diisocyanates, and oligomeric isocyanates; and where the polyamine is an α,ω-diamine of the formula H 2 N-(CH 2 ) p -NH 2 , wherein p is an integer from 2 to 6; where the composition contains the microparticles in an amount of from 30 to 60% by weight, based on the total weight of the composition.
A composition for the removal of an organic photoresist from a substrate, which comprises: aryl sulfonic acid or alkylaryl sulfonic acid or mixtures thereof in an amount from 20 to 40 % by weight based on the total weight of the composition; 1,3-dihydroxybenzene (resorcinol) or sorbitol or mixtures thereof in an amount from 0.2 to 3.5 weight percent based on the total weight of the composition; a hydrocarbon solvent having a flash point of greater than 65°C in an amount from 60 to 85 percent by weight based on the total weight of the composition; and greater than 0.08 % by weight sulfuric acid based on the total weight of the composition. aryl sulfonic acid or alkylaryl sulfonic acid or mixtures thereof in an amount from 20 to 40 % by weight based on the total weight of the composition; 1,3-dihydroxybenzene (resorcinol) or sorbitol or mixtures thereof in an amount from 0.2 to 3.5 weight percent based on the total weight of the composition; a hydrocarbon solvent having a flash point of greater than 65°C in an amount from 60 to 85 percent by weight based on the total weight of the composition; and greater than 0.08 % by weight sulfuric acid based on the total weight of the composition.
A machine for fluid jet cutting of a workpiece , comprising a stand with two essentially parallel guides at a distance from each other, the respective opposing parallel guides are configured to carry movingly each end of a bar which can move essentially in the longitudinal direction (Y) of the stand, a control unit is configured to control the motion of the bar, the bar carries fluid jet cutting tools (16A-D), each end of the bar are arranged to the guides via a first journal means and a second journal means , whereby one end of the bar coacts with a first journal means which at least enables the bar to pivot to a limited extent and the other end of the bar coacts with a second journal means which at least enables the bar to move horizontally (X) and pivotally (P), characterized in that it further comprises a workpiece position measuring equipment (22x′, 22xʺ, 22x′′′, 28) for sensing at least two reference positions (x′, xʺ, x′′′) of the workpiece , and the control unit is configured to operate the motion of the bar from the reference position values (x′, xʺ, x′′′) and other operational data, for adjusting the position of the tool equipped bar of the machine in alignment with the workpiece to be machined.