mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel supply system for a gaseous fueled internal combustion engine comprising: a gaseous fuel supply conduit ; a fuel injector for injecting gaseous fuel into said internal combustion engine, said fuel injector having a first body comprising an inlet , and a nozzle chamber fluidly connected to said inlet and from which said gaseous fuel is injected into said internal combustion engine, and comprising a needle and a seat , an injection valve seal formed when said needle abuts said seat ; a second body formed for installation between and fluidly connecting said gaseous fuel supply conduit and a gaseous fuel flow passage of a predetermined volume through which said gaseous fuel supply conduit is connected to said nozzle chamber , said second body defining a restricted fluid flow passage for delivering said gaseous fuel to said nozzle chamber ; and wherein a cross-sectional area of said restricted fluid flow passage is a smallest effective area between said gaseous fuel supply conduit and said nozzle chamber and wherein said cross-sectional area of said restricted fluid flow passage is selected as a function of said predetermined volume to maintain pressure pulsations within said gaseous fuel flow passage within a predetermined pressure range while maintaining gaseous fuel pressure within said nozzle chamber above a predetermined threshold which is needed to inject a commanded amount of gaseous fuel within a predetermined injection pulse width for each engine operating condition. a gaseous fuel supply conduit ; a fuel injector for injecting gaseous fuel into said internal combustion engine, said fuel injector having a first body comprising an inlet , and a nozzle chamber fluidly connected to said inlet and from which said gaseous fuel is injected into said internal combustion engine, and comprising a needle and a seat , an injection valve seal formed when said needle abuts said seat ; a second body formed for installation between and fluidly connecting said gaseous fuel supply conduit and a gaseous fuel flow passage of a predetermined volume through which said gaseous fuel supply conduit is connected to said nozzle chamber , said second body defining a restricted fluid flow passage for delivering said gaseous fuel to said nozzle chamber ; and wherein a cross-sectional area of said restricted fluid flow passage is a smallest effective area between said gaseous fuel supply conduit and said nozzle chamber and wherein said cross-sectional area of said restricted fluid flow passage is selected as a function of said predetermined volume to maintain pressure pulsations within said gaseous fuel flow passage within a predetermined pressure range while maintaining gaseous fuel pressure within said nozzle chamber above a predetermined threshold which is needed to inject a commanded amount of gaseous fuel within a predetermined injection pulse width for each engine operating condition.
A method to determine the wear of an impact rocker of an impact crusher, in particular of a rotary impact crusher, the impact crusher having a crusher unit , which has an impact rotor , wherein the impact rotor bears at least two impact bars , wherein the impact bars having a radially outer end (35.1), wherein the radially outer end (35.1) of at least one of the impact bars forms an impact circle (K), wherein at least one impact rocker is assigned to the impact rotor such that, in an operating position, a crushing gap is formed between the impact circle (K) and a crushing section (41.6) of the impact rocker , wherein for setting the crushing gap, first the crushing section (41.6) of the impact rocker is adjusted by means of an actuating unit in a feed direction by a first adjustment value such that it contacts a contact point of the impact bar , in particular the radially outer end and/or the impact circle, wherein the first adjustment value is compared to a first reference value in a measurement device, and wherein the crushing section (41.6) is adjusted by a predetermined gap dimension to create the crushing gap, is characterized in that , in an additional measurement step, the crushing section (41.6) is brought into contact with a reference measurement section (36.1) and in doing so, a second adjustment value is determined and compared to a second reference value.
Method of probabilistic symmetric encryption of a plaintext message element (x) with the aid of a secret key that can be represented in the form of a matrix (M) of dimension (k, n), comprising the following steps: - a step (E1) of encoding the plaintext message element (x) as a code word (C(x)) with the aid of an error correcting code (C) having a given correction capacity (t); - a step (E4) of encrypting the code word (C(x)), during which the result of a product of the secret matrix (M) and of a random vector (a) of dimension k is added to the code word (C(x)), - a computation step (E6) during which a noise vector (ε) is added to the encrypted code word ( C ( x )⊕ a·M ) so as to obtain an encrypted message element ( y = C ( x )⊕ a·M ⊕ ε ) coupled to the random vector (a), said method being characterized in that it comprises a test step for verifying whether the Hamming weight of the noise vector (ε) generated is less than or equal to the correction capacity (t) and, if the test is negative, a new noise vector is generated. - a step (E1) of encoding the plaintext message element (x) as a code word (C(x)) with the aid of an error correcting code (C) having a given correction capacity (t); - a step (E4) of encrypting the code word (C(x)), during which the result of a product of the secret matrix (M) and of a random vector (a) of dimension k is added to the code word (C(x)), - a computation step (E6) during which a noise vector (ε) is added to the encrypted code word ( C ( x )⊕ a·M ) so as to obtain an encrypted message element ( y = C ( x )⊕ a·M ⊕ ε ) coupled to the random vector (a), said method being characterized in that it comprises a test step for verifying whether the Hamming weight of the noise vector (ε) generated is less than or equal to the correction capacity (t) and, if the test is negative, a new noise vector is generated.
A method comprising: receiving , by a first computing device , sensor data from a second computing device , wherein the sensor data indicates movement of the second computing device; responsive to determining , by the first computing device and based on the sensor data, that the second computing device is not being worn : outputting , by the first computing device and for display, a notification; and outputting, by the first computing device, for transmission to the second computing device, a command to cause the second computing device to transition from operating in a full access mode to operating in a reduced access mode, wherein at least a portion of the functionality of the second computing device is inaccessible via a lock mechanism while the second computing device is operating in the reduced access mode; and responsive to determining, by the first computing device and based on the sensor data, that the second computing device is being worn , sending , by the first computing device, to the second computing device, the indication of the notification. receiving , by a first computing device , sensor data from a second computing device , wherein the sensor data indicates movement of the second computing device; responsive to determining , by the first computing device and based on the sensor data, that the second computing device is not being worn : outputting , by the first computing device and for display, a notification; and outputting, by the first computing device, for transmission to the second computing device, a command to cause the second computing device to transition from operating in a full access mode to operating in a reduced access mode, wherein at least a portion of the functionality of the second computing device is inaccessible via a lock mechanism while the second computing device is operating in the reduced access mode; and outputting , by the first computing device and for display, a notification; and outputting, by the first computing device, for transmission to the second computing device, a command to cause the second computing device to transition from operating in a full access mode to operating in a reduced access mode, wherein at least a portion of the functionality of the second computing device is inaccessible via a lock mechanism while the second computing device is operating in the reduced access mode; and responsive to determining, by the first computing device and based on the sensor data, that the second computing device is being worn , sending , by the first computing device, to the second computing device, the indication of the notification.
A data processing system comprising: a processor ; and a memory in communication with the processor, the memory storing executable instructions that, when executed by the processor, cause the data processing system to perform functions of: receiving a request over a network to switch a source site associated with a first uniform resource identifier, URI, with a target site associated with a second URI such that content of the target site can be accessed via the first URI; changing a first name of the target site in a content store to a second name to associate the target site with the first URI, the second name being a name of the source site at the first URI; after renaming the target site in the content store, changing a lookup data associated with the first URI from the source site to the target site; and once the lookup data has been changed, changing the second name of the source site in the content store to the first name to associate the source site with the second URI. a processor ; and a memory in communication with the processor, the memory storing executable instructions that, when executed by the processor, cause the data processing system to perform functions of: receiving a request over a network to switch a source site associated with a first uniform resource identifier, URI, with a target site associated with a second URI such that content of the target site can be accessed via the first URI; changing a first name of the target site in a content store to a second name to associate the target site with the first URI, the second name being a name of the source site at the first URI; after renaming the target site in the content store, changing a lookup data associated with the first URI from the source site to the target site; and once the lookup data has been changed, changing the second name of the source site in the content store to the first name to associate the source site with the second URI. receiving a request over a network to switch a source site associated with a first uniform resource identifier, URI, with a target site associated with a second URI such that content of the target site can be accessed via the first URI; changing a first name of the target site in a content store to a second name to associate the target site with the first URI, the second name being a name of the source site at the first URI; after renaming the target site in the content store, changing a lookup data associated with the first URI from the source site to the target site; and once the lookup data has been changed, changing the second name of the source site in the content store to the first name to associate the source site with the second URI.
A method for determining a current wear (w) of a radial piston pump, with a variable-speed drive , where the pump is connected to a fluid passage , in which a fluid is pumped by the pump , the pump creating a current actual volume flow in the fluid passage , characterized in that a current actual volume flow (Q act ) is determined, by means of measuring the volume flow in the fluid passage at a predetermined drive-vector comprising a first pressure and a second pressure of the fluid respectively, a computed volume flow (Q comp ) is determined, by means of a first computational method, at the predetermined drive-vector comprising a first pressure and a second pressure of the fluid respectively, and the current wear (w) of the pump is determined, by means of a second computational method, which relates the current actual volume flow (Q act ) to the computed volume flow (Q comp ).
A drawer arrangement, comprising: - a drawer sidewall having a locking device , the locking device of the drawer sidewall including a locking lever pre-stressed by at least one spring , - a wall element configured to be transversely connected to the drawer sidewall , wherein the wall element , in a connected condition with the drawer sidewall , has a fastening surface facing towards the drawer sidewall and an opposing bearing surface facing away from the fastening surface , - at least one furniture fitting separate from the wall element for connecting the wall element to the drawer sidewall , wherein the at least one furniture fitting is configured to be releasably locked to the locking lever of the locking device of the drawer sidewall , characterized in that the at least one furniture fitting , in the connected condition of the wall element with the drawer sidewall , bears at least partially against the bearing surface of the wall element , so that the wall element is held on the drawer sidewall by the locking of the furniture fitting with the locking device of the drawer sidewall , wherein the drawer sidewall has a front face , wherein the fastening surface of the wall element bears at least partially against the front face of the drawer sidewall in the connected condition of the wall element with the drawer sidewall . - a drawer sidewall having a locking device , the locking device of the drawer sidewall including a locking lever pre-stressed by at least one spring , - a wall element configured to be transversely connected to the drawer sidewall , wherein the wall element , in a connected condition with the drawer sidewall , has a fastening surface facing towards the drawer sidewall and an opposing bearing surface facing away from the fastening surface , - at least one furniture fitting separate from the wall element for connecting the wall element to the drawer sidewall , wherein the at least one furniture fitting is configured to be releasably locked to the locking lever of the locking device of the drawer sidewall ,
A pickup assembly for an agricultural harvester , the pickup assembly comprising: - a pickup assembly frame , - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a feeding auger , and - a wind guard assembly comprising: a wind guard frame with a top section and a front section, the top section being pivotably coupled to the pickup assembly frame , the front section extending downwards from the top section, a wind guard shield , carried by the wind guard frame to cover at least a portion of a top and a front of the pickup assembly , and a wind guard shield return surface , extending downward and rearward from the front section of the wind guard frame and configured to guide crop falling of the feeding auger back to the pickup unit . - a pickup assembly frame , - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a feeding auger , and - a wind guard assembly comprising: a wind guard frame with a top section and a front section, the top section being pivotably coupled to the pickup assembly frame , the front section extending downwards from the top section, a wind guard shield , carried by the wind guard frame to cover at least a portion of a top and a front of the pickup assembly , and a wind guard shield return surface , extending downward and rearward from the front section of the wind guard frame and configured to guide crop falling of the feeding auger back to the pickup unit . a wind guard frame with a top section and a front section, the top section being pivotably coupled to the pickup assembly frame , the front section extending downwards from the top section, a wind guard shield , carried by the wind guard frame to cover at least a portion of a top and a front of the pickup assembly , and a wind guard shield return surface , extending downward and rearward from the front section of the wind guard frame and configured to guide crop falling of the feeding auger back to the pickup unit .
Fixing device for fixing a component configured to be mounted on a support against an element protruding from said support , the fixing device comprising: - a plate configured to receive the component along a surface of the component , and - a retaining element arranged on a first end of the plate , and configured to cooperate with a complementary retaining element of the element to fix the component against the element when the component is mounted on the support , the component being disposed between the plate and the element , wherein the plate comprises a second end , notably opposite from the first end , configured to receive a portion of the component so that said portion protrudes from the plate for an insertion into a hole in the support when mounting the component on the support , and characterized by the second end of the plate which has a cross-section comprising at least a cylindrical portion configured to allow a pivot of the plate between a first position wherein the angle formed between the plate and the support is different from zero to a second position wherein the plate is substantially perpendicular to the support. - a plate configured to receive the component along a surface of the component , and - a retaining element arranged on a first end of the plate , and configured to cooperate with a complementary retaining element of the element to fix the component against the element when the component is mounted on the support , the component being disposed between the plate and the element , wherein the plate comprises a second end , notably opposite from the first end , configured to receive a portion of the component so that said portion protrudes from the plate for an insertion into a hole in the support when mounting the component on the support , and characterized by the second end of the plate which has a cross-section comprising at least a cylindrical portion configured to allow a pivot of the plate between a first position wherein the angle formed between the plate and the support is different from zero to a second position wherein the plate is substantially perpendicular to the support.
A layered granule comprising a core and a matrix layer surrounding the core, wherein the matrix comprises a biological active and 1-50% w/w of a non-volatile liquid having a vapor pressure of less than 1 kPa at 25°C, and a melting point of 25°C or lower; wherein the biological active is an enzyme, a bacterial spore, a dehydrated yeast cell, or a dehydrated bacterial cell; and wherein the non-volatile liquid is a polyol selected from the group consisting of glycerol, ethylene glycol, diethylene glycol, triethylene glycol, propylene glycol, dipropylene glycol, tripropylene glycol, and polyethylene glycol.
Hydraulic binder composition intended to be used to form a self-compacting and re-excavatable backfill, comprising: - fly ash in a content of between 70 weight % and 90 weight %, advantageously between 75 weight % and 85 weight %, based on the total weight of hydraulic binder composition; and - aluminous cement in a content of between 5 weight % and 20 weight %, based on the total weight of the hydraulic binder composition, - hydrated lime in a content of between 0.05 weight % and 15 weight %, preferably between 0.5 weight % and 6 weight %, advantageously between 1 weight % and 5 weight %, based on the total weight of the hydraulic binder composition, said hydraulic binder composition being intended to be mixed with a granulate composition and water to form said self-compacting and re-excavatable backfill. - fly ash in a content of between 70 weight % and 90 weight %, advantageously between 75 weight % and 85 weight %, based on the total weight of hydraulic binder composition; and - aluminous cement in a content of between 5 weight % and 20 weight %, based on the total weight of the hydraulic binder composition, - hydrated lime in a content of between 0.05 weight % and 15 weight %, preferably between 0.5 weight % and 6 weight %, advantageously between 1 weight % and 5 weight %, based on the total weight of the hydraulic binder composition,
Fluidic device comprising: a main body inside which a fluid flow passage that guides a fluid has been formed, wherein the main body is formed of a conductive fluorine resin material containing a fluorine resin material, and carbon nanotubes dispersed in the fluorine resin material, wherein a volume resistivity of the conductive fluorine resin material is more than 1.0×10 3 Ω·cm and less than 1.0×10 4 ·Ω·cm, characterised in that : the conductive fluorine resin material contains the carbon nanotubes at a rate not less than 0.020 weight % and not more than 0.030 weight %. a main body inside which a fluid flow passage that guides a fluid has been formed, wherein the main body is formed of a conductive fluorine resin material containing a fluorine resin material, and carbon nanotubes dispersed in the fluorine resin material, wherein a volume resistivity of the conductive fluorine resin material is more than 1.0×10 3 Ω·cm and less than 1.0×10 4 ·Ω·cm, characterised in that : the conductive fluorine resin material contains the carbon nanotubes at a rate not less than 0.020 weight % and not more than 0.030 weight %.
A stowage bin control system for a vehicle, the stowage bin control system comprising: at least one stowage bin assembly that is configured to be selectively moved between an open position and a closed position; and a master control device that is separate and distinct from the at least one stowage bin assembly , wherein the master control device is communicatively coupled through a wireless connection to the at least one stowage bin assembly and is configured to operate the at least one stowage bin assembly ; wherein: the at least one stowage bin assembly comprises a plurality of stowage bin assemblies wirelessly communicatively coupled to the master control device ; and the master control device is configured to open and/or close the plurality of stowage bin assemblies in a staggered fashion. at least one stowage bin assembly that is configured to be selectively moved between an open position and a closed position; and a master control device that is separate and distinct from the at least one stowage bin assembly , wherein the master control device is communicatively coupled through a wireless connection to the at least one stowage bin assembly and is configured to operate the at least one stowage bin assembly ; wherein: the at least one stowage bin assembly comprises a plurality of stowage bin assemblies wirelessly communicatively coupled to the master control device ; and the master control device is configured to open and/or close the plurality of stowage bin assemblies in a staggered fashion. the at least one stowage bin assembly comprises a plurality of stowage bin assemblies wirelessly communicatively coupled to the master control device ; and the master control device is configured to open and/or close the plurality of stowage bin assemblies in a staggered fashion.