mhurhangee/ep-ind-claims huggingface dataset:
Pressure measuring cell comprising at least one counter-body and a measuring diaphragm level in the equilibrium position, said measuring diaphragm being joined in a pressure-tight manner with the at least one counter-body along a circumferential joint by means of anodic bonding, wherein the counter-body has a borosilicate glass, wherein the counter-body comprises a glass surface with a planar marginal zone which is joined to the measuring diaphragm, wherein the marginal zone surrounds a recessed contour situated opposite it, said contour approximating the bending line of the measuring diaphragm to be joined to the marginal zone for the purposes of supporting the measuring diaphragm in the case of overload, characterized in that the surface has a surface roughness of R a < 100 nm, and the surface is free from cristobalite crystals with a diameter of more than 5 μm, wherein the recessed contour can be obtained through the thermal subsidence of a glass body, wherein the thermal subsidence is performed at a pressure of not more than 10 -4 mbar, particularly not more than 10 -5, wherein as a result of the thermal subsidence, a subsidence depth z 0 of the contour is achieved, which is not less than 0.2% and not more than 10% of the material thickness, particularly not less than 0.5 % and not more than 5% of the material thickness of the glass body.
A method of storing data associated with a network enabled device that connects to one or more nodes in a distributed computing system, the method comprising: establishing a first connection between a network-enabled device and a first node in a distributed computing system; as a result of the first node providing a service to the network enabled device, storing a set of data associated with the network-enabled device in the distributed computing system; giving the first node ownership of the set of data, where ownership comprises: restricting a permission on the set of data such that the first node in the distributed computing system is permitted to modify the set of data and other nodes in the distributed computing system are excluded from modifying the set of data; in response to a second connection purporting to be from the network-enabled device at a second node in the distributed computing system, requesting the first node to transfer ownership of the set of data to the second node; responsive to the request to transfer ownership, initiating an evaluation with respect to the purported network enabled device, the evaluation comprising at least one of: a security evaluation of the purported network enabled device, and, a health evaluation of the network enabled device; and, determining whether to transfer ownership of the set of data to the second node based at least in part on an outcome of the evaluation. establishing a first connection between a network-enabled device and a first node in a distributed computing system; as a result of the first node providing a service to the network enabled device, storing a set of data associated with the network-enabled device in the distributed computing system; giving the first node ownership of the set of data, where ownership comprises: restricting a permission on the set of data such that the first node in the distributed computing system is permitted to modify the set of data and other nodes in the distributed computing system are excluded from modifying the set of data; in response to a second connection purporting to be from the network-enabled device at a second node in the distributed computing system, requesting the first node to transfer ownership of the set of data to the second node; responsive to the request to transfer ownership, initiating an evaluation with respect to the purported network enabled device, the evaluation comprising at least one of: a security evaluation of the purported network enabled device, and, a health evaluation of the network enabled device; and, a security evaluation of the purported network enabled device, and, a health evaluation of the network enabled device; and, determining whether to transfer ownership of the set of data to the second node based at least in part on an outcome of the evaluation.
A combustor wall assembly for a gas turbine comprising: a shell; and a liner having a thickness with a cooling cavity defined between the shell and the liner, wherein the liner is formed from a plurality of arcuate, floating panels; and a sealing interface structure sealingly engaged with and carried between the shell and the liner for resisting cooling air leakage out of the cooling cavity, the sealing interface structure having a sealing width of at least twice the thickness of the liner; characterised in that: the shell has an inner surface facing the cooling cavity and converging toward the sealing interface structure; the sealing interface structure includes an elongated rail attached to the liner; and the rail includes inner and outer sealing segments and defines a or the chamber therebetween for causing air to recirculate or otherwise creating an airflow turbulence; wherein the rail is located proximate to an edge of one of the panels and projects laterally outward from a cold surface of the respective panel. a shell; and a liner having a thickness with a cooling cavity defined between the shell and the liner, wherein the liner is formed from a plurality of arcuate, floating panels; and a sealing interface structure sealingly engaged with and carried between the shell and the liner for resisting cooling air leakage out of the cooling cavity, the sealing interface structure having a sealing width of at least twice the thickness of the liner; characterised in that: the shell has an inner surface facing the cooling cavity and converging toward the sealing interface structure; the sealing interface structure includes an elongated rail attached to the liner; and the rail includes inner and outer sealing segments and defines a or the chamber therebetween for causing air to recirculate or otherwise creating an airflow turbulence; wherein the rail is located proximate to an edge of one of the panels and projects laterally outward from a cold surface of the respective panel. the shell has an inner surface facing the cooling cavity and converging toward the sealing interface structure; the sealing interface structure includes an elongated rail attached to the liner; and the rail includes inner and outer sealing segments and defines a or the chamber therebetween for causing air to recirculate or otherwise creating an airflow turbulence; wherein the rail is located proximate to an edge of one of the panels and projects laterally outward from a cold surface of the respective panel.
A device comprising: an electrical interface for receiving a predetermined bandwidth of Ethernet traffic over four links, each link carrying an electrical signal at 20 Gbps; an optical interface for receiving a plurality of optical fibers; a modem configured to allocate the received predetermined bandwidth of Ethernet traffic into first and second optical portions; a first optical transceiver configured to transmit, via the optical interface, the first optical portion of Ethernet traffic over a first optical fiber at a first wavelength ( λ 1) and over a second optical fiber at a second wavelength ( λ 2); and a second optical transceiver configured to transmit, via the optical interface, the second optical portion of the Ethernet traffic over a third optical fiber at a third wavelength ( λ 3) and over a fourth optical fiber at a fourth wavelength ( λ 4), wherein the device is a Quad Small Form-factor Pluggable, QSFP, module. an electrical interface for receiving a predetermined bandwidth of Ethernet traffic over four links, each link carrying an electrical signal at 20 Gbps; an optical interface for receiving a plurality of optical fibers; a modem configured to allocate the received predetermined bandwidth of Ethernet traffic into first and second optical portions; a first optical transceiver configured to transmit, via the optical interface, the first optical portion of Ethernet traffic over a first optical fiber at a first wavelength ( λ 1) and over a second optical fiber at a second wavelength ( λ 2); and a second optical transceiver configured to transmit, via the optical interface, the second optical portion of the Ethernet traffic over a third optical fiber at a third wavelength ( λ 3) and over a fourth optical fiber at a fourth wavelength ( λ 4), wherein the device is a Quad Small Form-factor Pluggable, QSFP, module.
Method for connecting substrates, comprising the following steps: (i) depositing one plasma polymer layer in each case on a first and a second substrate by means of an atmospheric-pressure plasma; and (ii) bringing the plasma polymer layers into contact, wherein, in the method for connecting the substrates, no adhesive is used except for the plasma polymer layers and wherein step (ii) immediately follows step (i). (i) depositing one plasma polymer layer in each case on a first and a second substrate by means of an atmospheric-pressure plasma; and (ii) bringing the plasma polymer layers into contact, wherein, in the method for connecting the substrates, no adhesive is used except for the plasma polymer layers and wherein step (ii) immediately follows step (i).
A packet forwarding method, applied to a multicast virtual private network, VPN, over bit index explicit replication, BIER, and comprising: configuring, by a first node, a first identifier of a first VPN and a first internet protocol version 6, IPv6, address, wherein the first IPv6 address corresponds to the first identifier; sending, by the first node, a first indication message to a second node, wherein the first indication message is used to indicate the second node to establish a correspondence between the first IPv6 address and a second identifier, the first indication message comprises the first identifier and the first IPv6 address, and the second identifier is an identifier that is of the second node and that satisfies a preset correspondence with the first identifier; receiving, by the first node, a multicast data packet that belongs to the first VPN; obtaining, by the first node, the first IPv6 address based on the first VPN to which the multicast data packet belongs and the first IPv6 address corresponding to the first identifier; and encapsulating (Si6o), by the first node, the multicast data packet based on the first IPv6 address to obtain a to-be-forwarded BIER packet, and sending the to-be-forwarded BIER packet, wherein the to-be-forwarded BIER packet comprises the first IPv6 address. configuring, by a first node, a first identifier of a first VPN and a first internet protocol version 6, IPv6, address, wherein the first IPv6 address corresponds to the first identifier; sending, by the first node, a first indication message to a second node, wherein the first indication message is used to indicate the second node to establish a correspondence between the first IPv6 address and a second identifier, the first indication message comprises the first identifier and the first IPv6 address, and the second identifier is an identifier that is of the second node and that satisfies a preset correspondence with the first identifier; receiving, by the first node, a multicast data packet that belongs to the first VPN; obtaining, by the first node, the first IPv6 address based on the first VPN to which the multicast data packet belongs and the first IPv6 address corresponding to the first identifier; and encapsulating (Si6o), by the first node, the multicast data packet based on the first IPv6 address to obtain a to-be-forwarded BIER packet, and sending the to-be-forwarded BIER packet, wherein the to-be-forwarded BIER packet comprises the first IPv6 address.
Installation for food product and/or flower presentation comprising means suitable for generating a mist of droplets and a mist diffusion head (16; 116; 216; 316; 416) which exhibits: - a mist inlet orifice, and - at least two mist outlet orifices each suitable for connecting the inlet orifice with the outside of the head, characterized in that the head comprises at least two shutters (126; 226; 326; 426) suitable for blocking the respective outlet orifices, each shutter being able to block just one of the outlet orifices, the shutters being mounted to move relative to a frame of the head independently of one another. - a mist inlet orifice, and - at least two mist outlet orifices each suitable for connecting the inlet orifice with the outside of the head,
A container for liquids, comprising: an expandable and collapsible bag having a first interior chamber and a second interior chamber separated by a barrier; a passage through the barrier for liquid to pass between the first interior chamber and second interior chamber; a first opening between the first interior chamber and an exterior of the bag; and a second opening between the second interior chamber and the exterior of the bag, characterized in that the passage comprises multiple passages through the barrier. an expandable and collapsible bag having a first interior chamber and a second interior chamber separated by a barrier; a passage through the barrier for liquid to pass between the first interior chamber and second interior chamber; a first opening between the first interior chamber and an exterior of the bag; and a second opening between the second interior chamber and the exterior of the bag, characterized in that the passage comprises multiple passages through the barrier.
A method of synthesizing a rare earth metal extractant composition comprising, as the active component, a dialkyl diglycol amic acid having the general formula: wherein R 1 and R 2 are each independently an alkyl group, at least one of R 1 and R 2 is a straight or branched alkyl group having at least 6 carbon atoms, said method comprising the steps of: reacting X mole of diglycolic acid with Y mole of an esterifying agent capable of dehydration and condensation of the two carboxyl groups on diglycolic acid, with a molar ratio Y/X being at least 2.5, at a reaction temperature of at least 70°C for a reaction time of at least 1 hour, then concentrating in vacuum to remove unreacted esterifying agent reactant and reaction residue, thus obtaining a reaction intermediate product which is a composition composed mostly of diglycolic anhydride with minor amounts of unreacted diglycolic acid and esterifying agent, adding a reaction solvent to the reaction intermediate product, the reaction solvent being an aprotic polar solvent, reacting the reaction intermediate product in said reaction solvent with Z mole of a dialkylamine, with a molar ratio of Z/X being at least 0.9, to form the dialkyl diglycol amic acid of formula by the reaction of the diglycolic anhydride in the reaction intermediate product with the dialkylamine, and removing the aprotic polar solvent to obtain the rare earth metal extractant composition. reacting X mole of diglycolic acid with Y mole of an esterifying agent capable of dehydration and condensation of the two carboxyl groups on diglycolic acid, with a molar ratio Y/X being at least 2.5, at a reaction temperature of at least 70°C for a reaction time of at least 1 hour, then concentrating in vacuum to remove unreacted esterifying agent reactant and reaction residue, thus obtaining a reaction intermediate product which is a composition composed mostly of diglycolic anhydride with minor amounts of unreacted diglycolic acid and esterifying agent, adding a reaction solvent to the reaction intermediate product, the reaction solvent being an aprotic polar solvent, reacting the reaction intermediate product in said reaction solvent with Z mole of a dialkylamine, with a molar ratio of Z/X being at least 0.9, to form the dialkyl diglycol amic acid of formula by the reaction of the diglycolic anhydride in the reaction intermediate product with the dialkylamine, and removing the aprotic polar solvent to obtain the rare earth metal extractant composition.
A data processing host, comprising a program running environment and a first isolation environment, wherein the program running environment is an environment in which the host operates in a non-secure mode, and the first isolation environment is an environment in which the host operates in a secure mode; the program running environment comprises at least one virtual instance operating in the non-secure mode, wherein the first isolation environment corresponds to the virtual instance in the program running environment; and the first isolation environment comprises an operating system in the secure mode and a resource allocated to the first isolation environment, the resource comprises a first isolation space and a processor resource, the first isolation space is used to run the operating system and a secure processing program, and store to-be-processed data, the secure processing program corresponds to a program in the virtual instance, and is used to process the to-be-processed data, to implement a secure processing function of the program in the virtual instance, and the first isolation space is isolated from the program running environment, wherein the host further comprises a second isolation environment, wherein the second isolation environment comprises a first management module and the first isolation environment, and the first management module is configured to manage the first isolation environment. the program running environment comprises at least one virtual instance operating in the non-secure mode, wherein the first isolation environment corresponds to the virtual instance in the program running environment; and the first isolation environment comprises an operating system in the secure mode and a resource allocated to the first isolation environment, the resource comprises a first isolation space and a processor resource, the first isolation space is used to run the operating system and a secure processing program, and store to-be-processed data, the secure processing program corresponds to a program in the virtual instance, and is used to process the to-be-processed data, to implement a secure processing function of the program in the virtual instance, and the first isolation space is isolated from the program running environment, wherein the host further comprises a second isolation environment, wherein the second isolation environment comprises a first management module and the first isolation environment, and the first management module is configured to manage the first isolation environment.
A system for producing controlled vibrations within a borehole comprising: an encoder plate having a first surface (615, 619) with a first plurality of protrusions (612, 616) arranged in a first configuration, wherein the first surface includes an inner ring and an outer ring, and wherein the inner ring is configured to rotate relative to the outer ring, the encoder plate positioned within a housing in the borehole; an anvil plate having a second surface with a second plurality of protrusions arranged in a second configuration, wherein the anvil plate is positioned within the housing relative to the encoder plate so that the second surface faces the first surface (615, 619); a movement mechanism configured to enable rotational and translational movement of the encoder plate relative to the anvil plate to allow the first plurality of protrusions (612, 616) to repeatedly impact the second plurality of protrusions, wherein a frequency of vibrations caused by the impacts is based on the first configuration and the second configuration; a rotation mechanism configured to control movement of the inner ring relative to the outer ring to selectively modify the frequency of vibrations caused by the impacts between the first plurality of protrusions (612, 616) and the second plurality of protrusions; and a vibration control mechanism configured to control an amplitude of the vibrations. an encoder plate having a first surface (615, 619) with a first plurality of protrusions (612, 616) arranged in a first configuration, wherein the first surface includes an inner ring and an outer ring, and wherein the inner ring is configured to rotate relative to the outer ring, the encoder plate positioned within a housing in the borehole; an anvil plate having a second surface with a second plurality of protrusions arranged in a second configuration, wherein the anvil plate is positioned within the housing relative to the encoder plate so that the second surface faces the first surface (615, 619); a movement mechanism configured to enable rotational and translational movement of the encoder plate relative to the anvil plate to allow the first plurality of protrusions (612, 616) to repeatedly impact the second plurality of protrusions, wherein a frequency of vibrations caused by the impacts is based on the first configuration and the second configuration; a rotation mechanism configured to control movement of the inner ring relative to the outer ring to selectively modify the frequency of vibrations caused by the impacts between the first plurality of protrusions (612, 616) and the second plurality of protrusions; and a vibration control mechanism configured to control an amplitude of the vibrations.
Component (1, 13, 16, 19, 20) for mounting on an agricultural machine, in particular a tool or component of a tool arrangement for soil and/or grassland cultivation and/or harvesting, wherein a sensor system is provided which comprises one or more sensor devices designed to detect a state of wear, in particular a state of abrasion, of the component (1, 13, 16, 19, 20), wherein each sensor device of the sensor system is arranged in a preferably elongate cavity formed in the component (1, 13, 16, 19, 20), characterized in that the component (1, 13, 16, 19, 20) has an anti-wear coating and at least one sensor device of the sensor system extends up to the anti-wear coating or up to a point which is at the distance of at most 2 cm, preferably at most 1 cm, particularly preferably at most 0.5 cm, from the anti-wear coating.