mhurhangee/patent-ind-claim-en huggingface dataset:
A dewar vessel storage apparatus configured to hold at least two dewar vessels containing liquefied gas or cryo-compressed gas, comprising: a box having an outer, thermally insulating, wall ; the box comprising a plurality of insulating cavities , each cavity configured to receive a single dewar vessel and is thermally insulated from each other cavity ; each cavity including a separately removable thermally insulating bung configured to close an open end of its cavity; a ventilation assembly comprising at least one conduit within the box configured to provide for venting of gas released from the dewar vessels when stored in the respective cavities of the box, the ventilation assembly configured to provide a gas outlet flow path from each cavity, wherein the ventilation assembly includes a releasable connector configured to releasably couple the outlet flow path of one of the cavities to a pressure relief valve of a dewar vessel inserted into said one of the cavities for receiving boiled-off gas from the dewar vessel, wherein the releasable connector is arranged at a base of the cavity such that a connection is made between the dewar vessel and the ventilation assembly when the dewar vessel is substantially completely inserted into said cavity , wherein each cavity and its associated bung is configured complimentary to the shape of the dewar vessel it is configured to receive such that there is substantially no air space when the dewar vessel is received in the cavity and the bung is in place. a box having an outer, thermally insulating, wall ; the box comprising a plurality of insulating cavities , each cavity configured to receive a single dewar vessel and is thermally insulated from each other cavity ; each cavity including a separately removable thermally insulating bung configured to close an open end of its cavity; a ventilation assembly comprising at least one conduit within the box configured to provide for venting of gas released from the dewar vessels when stored in the respective cavities of the box, the ventilation assembly configured to provide a gas outlet flow path from each cavity, wherein the ventilation assembly includes a releasable connector configured to releasably couple the outlet flow path of one of the cavities to a pressure relief valve of a dewar vessel inserted into said one of the cavities for receiving boiled-off gas from the dewar vessel, wherein the releasable connector is arranged at a base of the cavity such that a connection is made between the dewar vessel and the ventilation assembly when the dewar vessel is substantially completely inserted into said cavity , wherein each cavity and its associated bung is configured complimentary to the shape of the dewar vessel it is configured to receive such that there is substantially no air space when the dewar vessel is received in the cavity and the bung is in place.
A method for heating subareas of apartments, such as a bathroom of an apartment, for a building provided with a domestic hot water circulation loop for supplying domestic hot water to points of use in apartments at a pre-set temperature and wherein heating of each subarea is performed with the heating energy of domestic water, characterised in that it is provided in the subarea a dedicated closed local water circulation loop , having a pump and an expansion tank , to which heating energy is transferred from the domestic water circulation loop using a heat exchanger placed in the subarea.
A method for establishing a transmission channel, comprising: transmitting , by a Mobility Management Entity, MME, an Update Location message to a Home Subscriber Server, HSS; receiving , by the MME, an Update Location acknowledgement message from the HSS, wherein the Update Location acknowledgement message includes an identifier of a Service Capability Exposure Function, SCEF, entity; and initiating , by the MME, an establishment of a non-Internet Protocol, IP, data transmission channel by transmitting, from the MME, a request message to the SCEF entity, wherein the request message includes the identifier of the SCEF entity, wherein the SCEF entity is associated with a Service Capability Server, SCS / Application Server, AS, for the establishment of the non-IP data transmission channel by 1) transmitting , by the SCEF entity to the SCS/AS, a second request message including an external identifier or a Mobile Station Integrated Services Digital Network Number, and 2) receiving a response message from the SCS/AS including an SCS/AS reference identifier. transmitting , by a Mobility Management Entity, MME, an Update Location message to a Home Subscriber Server, HSS; receiving , by the MME, an Update Location acknowledgement message from the HSS, wherein the Update Location acknowledgement message includes an identifier of a Service Capability Exposure Function, SCEF, entity; and initiating , by the MME, an establishment of a non-Internet Protocol, IP, data transmission channel by transmitting, from the MME, a request message to the SCEF entity, wherein the request message includes the identifier of the SCEF entity, wherein the SCEF entity is associated with a Service Capability Server, SCS / Application Server, AS, for the establishment of the non-IP data transmission channel by 1) transmitting , by the SCEF entity to the SCS/AS, a second request message including an external identifier or a Mobile Station Integrated Services Digital Network Number, and 2) receiving a response message from the SCS/AS including an SCS/AS reference identifier.
An exoskeleton for assistance of the movement of intra-extra rotation of a shoulder of a user comprising a rotational joint of intra-extra rotation , said rotational joint comprising: - a first circular guide arranged to rotate about a rotation axis r, said first circular guide having the shape of an arc of circumference; - a second circular guide arranged to rotate about a rotation axis r' aligned with said rotation axis r, said second circular guide having the shape of an arc of circumference; - a support element arranged to support said first and said second circular guide ; said rotational joint characterized in that said first and said second circular guide are pivotally connected by a conical wheel having rotation axis s perpendicular to said rotation axes r and r ', said conical wheel being pivotally constrained to said support element , and by that when said conical wheel makes a rotation θ about said rotation axis s, said first circular guide makes a rotation φ about said rotation axis r and, at the same time, said second circular guide makes a rotation φ' = -αφ about said rotation axis r', α being a positive real number. - a first circular guide arranged to rotate about a rotation axis r, said first circular guide having the shape of an arc of circumference; - a second circular guide arranged to rotate about a rotation axis r' aligned with said rotation axis r, said second circular guide having the shape of an arc of circumference; - a support element arranged to support said first and said second circular guide ;
A vacuum condition processing apparatus , wherein a top of the apparatus is suitable for being connected to an external particle beam generating device, wherein the apparatus comprises: a suction cup structure having a bottom in contact with a specimen or a platform holding the specimen, a first gas controlling device connected to an external gas supplying system , a second gas controlling device connected to an external pumping system ; wherein a window is deployed at the top of the apparatus , and a particle beam goes into the apparatus through the window ; the first gas controlling device is arranged to connect the external gas supplying system and the suction cup structure ; and the second gas controlling device is arranged to connect the external pumping system and the suction cup structure , wherein the suction cup structure comprises: a metal bellow , a spring structure including at least one circle of spring, and a sealing structure ; wherein the spring structure is located within the metal bellow , and is arranged to support the metal bellow ; a bottom of the metal bellow is connected to the sealing structure ; and the sealing structure is suitable for being in contact with the specimen or the platform holding the specimen. a suction cup structure having a bottom in contact with a specimen or a platform holding the specimen, a first gas controlling device connected to an external gas supplying system , a second gas controlling device connected to an external pumping system ; wherein a window is deployed at the top of the apparatus , and a particle beam goes into the apparatus through the window ; the first gas controlling device is arranged to connect the external gas supplying system and the suction cup structure ; and the second gas controlling device is arranged to connect the external pumping system and the suction cup structure , wherein the suction cup structure comprises: a metal bellow , a spring structure including at least one circle of spring, and a sealing structure ; wherein the spring structure is located within the metal bellow , and is arranged to support the metal bellow ; a bottom of the metal bellow is connected to the sealing structure ; and the sealing structure is suitable for being in contact with the specimen or the platform holding the specimen.
A credential device for use in an access control system , comprising an access permission data structure including a first sector , a second sector and a third sector , wherein the first sector includes first data of a first database type readable by a first lock ; wherein the second sector includes second data of a second database type different from the first database type and readable by a second lock, the second data including a look-up table including a group/door number and a sector number, wherein the look-up table references data stored in the third sector ; wherein the third sector includes third data including access privilege data for a user, and the third data is related to the second data; and wherein presentation of the credential device to a reader associated to the first or second lock triggers an update by writing new access data to the credential device .
An apparatus for controlling a signal such that a PLC (Programmable Logic Controller) input signal is equalized to a reference input signal (u c ), characterized in that the apparatus comprises: a first operation unit (201; 301) to generate a PLC output signal from the PLC input signal by applying a first transfer function (Hi(s)); a second operation unit (203; 303) to generate a reference output signal (y m ) from the reference input signal (u c ) by applying a second transfer function (H 2 (s)) distinguished from the first transfer function (H 1 (s)). an error calculation unit to generate an error signal (e) by using the PLC output signal and the reference output signal (y m ); an estimation parameter calculation unit to calculate an estimation parameter by using the reference input signal (u c ), the PLC input signal and the error signal (e); and an error correction unit to correct the error by using the estimation parameter such that the PLC input signal is equalized to the reference input signal (u c ). a first operation unit (201; 301) to generate a PLC output signal from the PLC input signal by applying a first transfer function (Hi(s)); a second operation unit (203; 303) to generate a reference output signal (y m ) from the reference input signal (u c ) by applying a second transfer function (H 2 (s)) distinguished from the first transfer function (H 1 (s)). an error calculation unit to generate an error signal (e) by using the PLC output signal and the reference output signal (y m ); an estimation parameter calculation unit to calculate an estimation parameter by using the reference input signal (u c ), the PLC input signal and the error signal (e); and an error correction unit to correct the error by using the estimation parameter such that the PLC input signal is equalized to the reference input signal (u c ).
A blast treatment device comprising: - at least one nozzle that is adapted to inject media (M) toward a workpiece (W); - a first tank that is adapted to supply the media (M) to the at least one nozzle ; - a movement structure that is adapted to move the at least one nozzle and the first tank in a horizontal direction and a vertical direction,; and - a second tank that supplies the media (M) to the first tank , the second tank being configured not to be moved by the movement structure , further comprising: a circulating system that is adapted to recover the injected media and supply the recovered media (M) to the second tank , wherein the first tank is coupled to the second tank by a hose having a detachable mechanism . - at least one nozzle that is adapted to inject media (M) toward a workpiece (W); - a first tank that is adapted to supply the media (M) to the at least one nozzle ; - a movement structure that is adapted to move the at least one nozzle and the first tank in a horizontal direction and a vertical direction,; and - a second tank that supplies the media (M) to the first tank , the second tank being configured not to be moved by the movement structure , further comprising: a circulating system that is adapted to recover the injected media and supply the recovered media (M) to the second tank , wherein the first tank is coupled to the second tank by a hose having a detachable mechanism . a circulating system that is adapted to recover the injected media and supply the recovered media (M) to the second tank , wherein the first tank is coupled to the second tank by a hose having a detachable mechanism .
A fermentation method for producing a hydrocarbon compound comprising the culturing of an organism in a liquid fermentation medium, wherein said organism produces a desired hydrocarbon compound by an enzymatic pathway, said enzymatic pathway comprising an intermediate which evaporates into the gaseous phase and wherein said intermediate is recovered from the gaseous phase and is reintroduced into the liquid fermentation medium, and wherein said intermediate is selected from an aldehyde, a ketone and an alcohol.
Charging system comprising, detection means arranged to detect a state of charge of a battery prior to a charging process, determination means arranged to determine a charging curve for the battery on the basis of the detected state of charge of the battery and calculation means arranged to calculate a charge profile, formed from at least two time intervals , each with an interval-specific, constant electrical power, wherein the charging curve limits the respective electrical power within a time interval, wherein the calculation means sum the respective products of time per interval and the interval-specific power over at least two intervals and determine the resulting energy therefrom and provide information about the determined electrical energy, characterized in that the charging curve envelopes the charging profile, such that at the end of each interval the interval-specific power equals the power provided by the charging curve .
A multiple phase auto-warming composition free of water and zeolites comprising at least one visually distinct alkoxylated glycerin phase and at least one visually distinct oil phase containing at least one fast blooming surfactant, wherein the alkoxylated glycerin is glycereth-26, wherein the oil phase comprises a plant oil obtained from seeds, stems, flowers, leaves or bark, wherein the composition additionally comprises one or more fast blooming surfactants soluble in the oil phase, and wherein the fast blooming surfactant is selected from the group consisting of: (a) a fatty acid ester of an alkylene glycol; (b) a fatty acid ester of sorbitol or sorbitol anhydride; (c) a fatty acid ester of hexatol anhydrides; and (d) mixtures thereof. (a) a fatty acid ester of an alkylene glycol; (b) a fatty acid ester of sorbitol or sorbitol anhydride; (c) a fatty acid ester of hexatol anhydrides; and (d) mixtures thereof.
A data processing apparatus comprising: processing circuitry for processing data; an instruction decoder responsive to program instructions to generate control signals for controlling said processing circuitry to process said data; a status store for storing a current condition state of said processing circuitry, said current condition state being modifiable during processing of said data; wherein said program instructions include a conditional compare instruction, and said instruction decoder is responsive to said conditional compare instruction to generate control signals for controlling said processing circuitry to perform a conditional compare operation comprising: (i) if said current condition state passes a test condition, then performing a compare operation on a first operand and a second operand and setting said current condition state to a result condition state generated during said compare operation; and (ii) if said current condition state fails said test condition, then setting said current condition state to a fail condition state specified by said conditional compare instruction. processing circuitry for processing data; an instruction decoder responsive to program instructions to generate control signals for controlling said processing circuitry to process said data; a status store for storing a current condition state of said processing circuitry, said current condition state being modifiable during processing of said data; wherein said program instructions include a conditional compare instruction, and said instruction decoder is responsive to said conditional compare instruction to generate control signals for controlling said processing circuitry to perform a conditional compare operation comprising: (i) if said current condition state passes a test condition, then performing a compare operation on a first operand and a second operand and setting said current condition state to a result condition state generated during said compare operation; and (ii) if said current condition state fails said test condition, then setting said current condition state to a fail condition state specified by said conditional compare instruction. (i) if said current condition state passes a test condition, then performing a compare operation on a first operand and a second operand and setting said current condition state to a result condition state generated during said compare operation; and (ii) if said current condition state fails said test condition, then setting said current condition state to a fail condition state specified by said conditional compare instruction.
A metallic matrix composite, comprising: a titanium aluminide alloy matrix; and an in situ formed aluminum oxide reinforcement, wherein the titanium aluminide alloy matrix comprises at least two titanium aluminide phases, and wherein the atomic percentage of aluminum in the titanium aluminide alloy matrix ranges from 40.0% to 48.0%, wherein quantities of the titanium aluminide phases in the form of TiAl and Ti 3 Al and the aluminum oxide phase in the form of Al 2 O 3 are selected in molar equivalents in accordance with the following formula: 3(1 - 2 x ) TiAl + 3 xTi 3 Al + 2(1 + x ) Al 2 O 3 . wherein x ranges from 0.04 to 0.20, and wherein porosity is 2% or less as determined by comparing the measured density to the theoretical density of the composite. a titanium aluminide alloy matrix; and an in situ formed aluminum oxide reinforcement, wherein the titanium aluminide alloy matrix comprises at least two titanium aluminide phases, and wherein the atomic percentage of aluminum in the titanium aluminide alloy matrix ranges from 40.0% to 48.0%, wherein quantities of the titanium aluminide phases in the form of TiAl and Ti 3 Al and the aluminum oxide phase in the form of Al 2 O 3 are selected in molar equivalents in accordance with the following formula: 3(1 - 2 x ) TiAl + 3 xTi 3 Al + 2(1 + x ) Al 2 O 3 . wherein x ranges from 0.04 to 0.20, and wherein porosity is 2% or less as determined by comparing the measured density to the theoretical density of the composite.
A system for holographic lens-free imaging, comprising: an image sensor ; a processor in communication with the image sensor ; and a computer-readable storage medium having stored thereon instructions which, when executed by the processor , causes the processor to: reconstruct pixel data obtained by the image sensor into a holographic image; extract, from the holographic image, a plurality of patches, being portions of the image, wherein the plurality of patches is a set of all fixed-size patches of the holographic image; and generate a dictionary, D, comprising a plurality of dictionary elements, wherein the dictionary is generated by solving the optimization problem min α , D ∑ i = 1 N E x i D α i + λR α i , where N is the number of patches in the plurality of patches, x i is the i th patch of the plurality of patches, α i represents the coefficients encoding the i th patch, E ( x i , D, α i ) is a function measuring the squared error of the approximation of x i by the weighted sum of dictionary elements with coefficients α i , and λR ( α i ) is sparsity term. an image sensor ; a processor in communication with the image sensor ; and a computer-readable storage medium having stored thereon instructions which, when executed by the processor , causes the processor to: reconstruct pixel data obtained by the image sensor into a holographic image; extract, from the holographic image, a plurality of patches, being portions of the image, wherein the plurality of patches is a set of all fixed-size patches of the holographic image; and generate a dictionary, D, comprising a plurality of dictionary elements, wherein the dictionary is generated by solving the optimization problem min α , D ∑ i = 1 N E x i D α i + λR α i , where N is the number of patches in the plurality of patches, x i is the i th patch of the plurality of patches, α i represents the coefficients encoding the i th patch, E ( x i , D, α i ) is a function measuring the squared error of the approximation of x i by the weighted sum of dictionary elements with coefficients α i , and λR ( α i ) is sparsity term. reconstruct pixel data obtained by the image sensor into a holographic image; extract, from the holographic image, a plurality of patches, being portions of the image, wherein the plurality of patches is a set of all fixed-size patches of the holographic image; and generate a dictionary, D, comprising a plurality of dictionary elements, wherein the dictionary is generated by solving the optimization problem min α , D ∑ i = 1 N E x i D α i + λR α i , where N is the number of patches in the plurality of patches, x i is the i th patch of the plurality of patches, α i represents the coefficients encoding the i th patch, E ( x i , D, α i ) is a function measuring the squared error of the approximation of x i by the weighted sum of dictionary elements with coefficients α i , and λR ( α i ) is sparsity term.