mhurhangee/patent-ind-claim-en huggingface dataset:
A power storage system comprising: a power converter whose load-side terminals are connected to a load; a secondary battery connected to power-supply-side terminals of the power converter; a capacitor connected to the power-supply-side terminals of the power converter via a DC/DC converter , in parallel to the secondary battery; and characterised by a controller configured to control the DC/DC converter to prioritize charging and discharging of the capacitor over charging and discharging of the secondary battery, wherein the controller includes: a first control unit configured to generate a target current value of the capacitor based on a deviation of a current of the secondary battery from a predetermined target current value of the secondary battery, the predetermined target current value being zero or close to zero; and a second control unit configured to generate a conduction ratio of the DC/DC converter based on a deviation of a current of the capacitor from the target current value of the capacitor, and outputs the conduction ratio to the DC/DC converter, and wherein the predetermined target current value of the secondary battery, the predetermined target current value being close to zero, is a current value less than or equal to a one-hour current rate of the secondary battery. a power converter whose load-side terminals are connected to a load; a secondary battery connected to power-supply-side terminals of the power converter; a capacitor connected to the power-supply-side terminals of the power converter via a DC/DC converter , in parallel to the secondary battery; and characterised by a controller configured to control the DC/DC converter to prioritize charging and discharging of the capacitor over charging and discharging of the secondary battery, wherein the controller includes: a first control unit configured to generate a target current value of the capacitor based on a deviation of a current of the secondary battery from a predetermined target current value of the secondary battery, the predetermined target current value being zero or close to zero; and a second control unit configured to generate a conduction ratio of the DC/DC converter based on a deviation of a current of the capacitor from the target current value of the capacitor, and outputs the conduction ratio to the DC/DC converter, and a first control unit configured to generate a target current value of the capacitor based on a deviation of a current of the secondary battery from a predetermined target current value of the secondary battery, the predetermined target current value being zero or close to zero; and a second control unit configured to generate a conduction ratio of the DC/DC converter based on a deviation of a current of the capacitor from the target current value of the capacitor, and outputs the conduction ratio to the DC/DC converter, and wherein the predetermined target current value of the secondary battery, the predetermined target current value being close to zero, is a current value less than or equal to a one-hour current rate of the secondary battery.
An analyte detection system, comprising: an analyte detection package ; a reading device ; wherein the analyte detection package is adapted to be presented to the reading device , the analyte detection package including an analyte stage , the analyte stage including a surface and surface enhanced luminescence structures , suitable to interact with a deposited analyte so as to enhance an intensity of radiation scattered or reemitted by the analyte, extending from the surface , wherein the reading device includes optics to receive scattered or emitted radiation from the analyte stage ; and a focus mechanism ; and characterised in that the analyte detection system comprises: a registration plate to contact the surface of the analyte stage , the registration plate adapted to be moved by the focus mechanism J Z to adjust a distance between the analyte stage of the analyte detection package and the optics of the reading device such that the analyte detection package is in-focus. an analyte detection package ; a reading device ; wherein the analyte detection package is adapted to be presented to the reading device , the analyte detection package including an analyte stage , the analyte stage including a surface and surface enhanced luminescence structures , suitable to interact with a deposited analyte so as to enhance an intensity of radiation scattered or reemitted by the analyte, extending from the surface , wherein the reading device includes optics to receive scattered or emitted radiation from the analyte stage ; and a focus mechanism ; and characterised in that the analyte detection system comprises: a registration plate to contact the surface of the analyte stage , the registration plate adapted to be moved by the focus mechanism J Z to adjust a distance between the analyte stage of the analyte detection package and the optics of the reading device such that the analyte detection package is in-focus.
Partition curtain having two layers , each of the layers including absorption areas and insulation areas , the absorption areas and the insulation areas within one layer being adjacent to one another, the sound absorption being higher in the absorption areas than in the insulation areas , and the sound insulation being higher in the insulation areas than in the absorption areas , characterized in that the absorption areas of one layer are located opposite to the insulation areas of the other layer, connecting elements extending between the layers and preventing sound from passing from one room area between the layers to an adjacent room area between the layers .
A processing device comprising: a controller ; a first clock circuit , the first clock circuit generating a first clock signal , the first clock signal being a main clock signal provided for operation of the processing device; and a built-in-test circuit, wherein the built-in-test circuit comprises: a second clock circuit that is integrated with the processing device and that generates a second clock signal ; and a logic circuit that is integrated with the processing device and that processes the first and second clock signals and outputs a third clock signal that is used to determine a system timing margin of the processing device, wherein the third clock signal is based on the processing of the first and second clock signals; wherein the system timing margin is the timing variation of a system clock that the processing device is capable of handling without exhibiting an unhealthy condition; wherein the processing device is configured to adjust the frequency of the second clock signal; wherein the second clock signal has a higher frequency than that of the first clock signal; and wherein the system clock corresponds to the third clock signal . a controller ; a first clock circuit , the first clock circuit generating a first clock signal , the first clock signal being a main clock signal provided for operation of the processing device; and a built-in-test circuit, wherein the built-in-test circuit comprises: a second clock circuit that is integrated with the processing device and that generates a second clock signal ; and a logic circuit that is integrated with the processing device and that processes the first and second clock signals and outputs a third clock signal that is used to determine a system timing margin of the processing device, wherein the third clock signal is based on the processing of the first and second clock signals; wherein the system timing margin is the timing variation of a system clock that the processing device is capable of handling without exhibiting an unhealthy condition; wherein the processing device is configured to adjust the frequency of the second clock signal; wherein the second clock signal has a higher frequency than that of the first clock signal; and wherein the system clock corresponds to the third clock signal . a second clock circuit that is integrated with the processing device and that generates a second clock signal ; and a logic circuit that is integrated with the processing device and that processes the first and second clock signals and outputs a third clock signal that is used to determine a system timing margin of the processing device, wherein the third clock signal is based on the processing of the first and second clock signals; wherein the system timing margin is the timing variation of a system clock that the processing device is capable of handling without exhibiting an unhealthy condition; wherein the processing device is configured to adjust the frequency of the second clock signal; wherein the second clock signal has a higher frequency than that of the first clock signal; and wherein the system clock corresponds to the third clock signal .
A method of operating a computer system comprising a plurality of computers each running a virtual machine having a virtual disk and being operably connectable to a portable memory device being a differencing device that stores changes to a state of a virtual disk image corresponding to the virtual machine, wherein each computer of the plurality of computers has a different code layout of scrambled code segments, the computer system further comprising means to convert between code layouts and a canonical form, the method for software virus prevention comprising: retrieving, at one of the plurality of computers, a scrambled code block from a portable memory device; using said means to convert said scrambled code block to the canonical form; and re-scrambling the canonicalized code block for use on a virtual machine running on said one of the plurality of computers. retrieving, at one of the plurality of computers, a scrambled code block from a portable memory device; using said means to convert said scrambled code block to the canonical form; and re-scrambling the canonicalized code block for use on a virtual machine running on said one of the plurality of computers.
A parking stand for connection to a loader arm of a loader , the parking stand comprising: a parking support including a support pivot end configured to pivotally couple to the loader arm , a ground engagement end opposite the support pivot end , and a wall disposed between the support pivot end and the ground engagement end , the wall including a row of discrete removable sections ; and a lock brace including a brace pivot end configured to pivotally couple to the loader arm , and an attachment end opposite the brace pivot end , the attachment end including a fastener receiving attachment hole , wherein the wall is configured such that removal of a respective removable section leaves a through hole defined in the wall of the parking support , and the attachment hole of the lock brace and the through hole of the wall are configured to align to receive a fastener therethrough. a parking support including a support pivot end configured to pivotally couple to the loader arm , a ground engagement end opposite the support pivot end , and a wall disposed between the support pivot end and the ground engagement end , the wall including a row of discrete removable sections ; and a lock brace including a brace pivot end configured to pivotally couple to the loader arm , and an attachment end opposite the brace pivot end , the attachment end including a fastener receiving attachment hole , wherein the wall is configured such that removal of a respective removable section leaves a through hole defined in the wall of the parking support , and the attachment hole of the lock brace and the through hole of the wall are configured to align to receive a fastener therethrough.
Rear engine attachment for an engine of an aircraft which comprises a pylon having a bottom face, said rear engine attachment comprising: - a first fitting intended to be fixed against said bottom face and comprising a wall which extends in a plane at right angles to a longitudinal axis X and having a front face intended to be oriented towards the front of the aircraft and a rear face intended to be oriented towards the rear of the aircraft , - a second fitting intended to be secured to a structural casing of the engine, said second fitting extending in a plane at right angles to the longitudinal axis X and having a front face intended to be oriented towards the front of the aircraft and a rear face intended to be oriented towards the rear of the aircraft , - a front inner link , - a rear inner link , - a front outer link , and - a rear outer link , the front inner link having a rear face which is positioned facing the front face of the wall and facing the front face of the second fitting , the rear inner link having a front face which is positioned facing the rear face of the wall and facing the rear face of the second fitting , characterized in that the front outer link has a rear face which is positioned facing the front face of the front inner link , and the rear outer link has a front face which is positioned facing the rear face of the rear inner link , and the front inner link is fixed by a main link point to the wall and by a first and a second link points to the second fitting , and the front outer link is fixed by the same main link point to the wall and by the same first and another second link points to the second fitting , and the rear inner link is fixed by the same main link point to the wall and by the same first and the same second link points to the second fitting as the front inner link , and the rear outer link is fixed by the same main link point to the wall and by the same first and the same second link points to the second fitting as the front outer link . - a first fitting intended to be fixed against said bottom face and comprising a wall which extends in a plane at right angles to a longitudinal axis X and having a front face intended to be oriented towards the front of the aircraft and a rear face intended to be oriented towards the rear of the aircraft , - a second fitting intended to be secured to a structural casing of the engine, said second fitting extending in a plane at right angles to the longitudinal axis X and having a front face intended to be oriented towards the front of the aircraft and a rear face intended to be oriented towards the rear of the aircraft , - a front inner link , - a rear inner link , - a front outer link , and - a rear outer link ,
An implantable medical device (IMD) , comprising: memory to store a baseline task handling (TH) pattern; and TH circuitry including one or more processors, the TH circuitry configured to: perform tasks associated with one or more of collecting one or more cardiac activity (CA) signals or environmental event signals, analyzing the one or more CA signals or environmental event signals, delivering therapy, detecting communications requests, or maintaining communications sessions with an external device , characterized in that the TH circuitry is further configured to monitor a TH characteristic in connection with the performing the tasks, wherein the TH characteristic is an attribute of the IMD measurable in connection with performing the one or more tasks compare the TH characteristic to the baseline TH pattern; and implement a corrective action in response to the compare of the TH characteristic and the baseline TH pattern. memory to store a baseline task handling (TH) pattern; and TH circuitry including one or more processors, the TH circuitry configured to: perform tasks associated with one or more of collecting one or more cardiac activity (CA) signals or environmental event signals, analyzing the one or more CA signals or environmental event signals, delivering therapy, detecting communications requests, or maintaining communications sessions with an external device , characterized in that the TH circuitry is further configured to monitor a TH characteristic in connection with the performing the tasks, wherein the TH characteristic is an attribute of the IMD measurable in connection with performing the one or more tasks compare the TH characteristic to the baseline TH pattern; and implement a corrective action in response to the compare of the TH characteristic and the baseline TH pattern. perform tasks associated with one or more of collecting one or more cardiac activity (CA) signals or environmental event signals, analyzing the one or more CA signals or environmental event signals, delivering therapy, detecting communications requests, or maintaining communications sessions with an external device , characterized in that the TH circuitry is further configured to monitor a TH characteristic in connection with the performing the tasks, wherein the TH characteristic is an attribute of the IMD measurable in connection with performing the one or more tasks compare the TH characteristic to the baseline TH pattern; and implement a corrective action in response to the compare of the TH characteristic and the baseline TH pattern.
A method executed by one or more computing devices for searching polymorphically encrypted data, the method comprising: generating, by at least one of the one or more computing devices, one or more pseudonymous tokens by encrypting a ciphertext using a first algorithm and an encryption key, the first algorithm comprising a polymorphic algorithm configured to generate a distinct pseudonymous token for each application of the polymorphic algorithm to the same ciphertext with the same encryption key; storing, by at least one of the one or more computing devices, the one or more pseudonymous tokens in a data store; and identifying, by at least one of the one or more computing devices, data in the data store that corresponds to the ciphertext by querying the data store using a search token generated by encrypting the ciphertext using a second algorithm and the encryption key, the search token being distinct from the one or more pseudonymous tokens. generating, by at least one of the one or more computing devices, one or more pseudonymous tokens by encrypting a ciphertext using a first algorithm and an encryption key, the first algorithm comprising a polymorphic algorithm configured to generate a distinct pseudonymous token for each application of the polymorphic algorithm to the same ciphertext with the same encryption key; storing, by at least one of the one or more computing devices, the one or more pseudonymous tokens in a data store; and identifying, by at least one of the one or more computing devices, data in the data store that corresponds to the ciphertext by querying the data store using a search token generated by encrypting the ciphertext using a second algorithm and the encryption key, the search token being distinct from the one or more pseudonymous tokens.
A method for controlling the mould cooling process during forming of glass containers in an IS type glass forming machine, characterised in that it includes the following steps: a) analysing the mould structure in terms of heat exchange between the glass, the mould, and the coolant, b) receiving data from sensors relating to pressure loss in the conduit supplying the coolant to the mould, pressure loss in the glass forming machine, to the point of entering the mould by the coolant, gob temperature before being fed into the blank mould, air temperature and humidity in the conduit, after completing the compression work by the fan, and introducing it to the calculation module (B), c) introducing the desired production rate and maximum time of realising the cooling event in the timing, as well as the type of material the mould is made of and/or maximum mould temperature allowed, into the calculation module (B), d) based on the introduced and received data, performing numerical calculations in the calculation module B, deriving the working point of the fan and cooling event timing, ensuring maximum efficiency of the cooling system. a) analysing the mould structure in terms of heat exchange between the glass, the mould, and the coolant, b) receiving data from sensors relating to pressure loss in the conduit supplying the coolant to the mould, pressure loss in the glass forming machine, to the point of entering the mould by the coolant, gob temperature before being fed into the blank mould, air temperature and humidity in the conduit, after completing the compression work by the fan, and introducing it to the calculation module (B), c) introducing the desired production rate and maximum time of realising the cooling event in the timing, as well as the type of material the mould is made of and/or maximum mould temperature allowed, into the calculation module (B), d) based on the introduced and received data, performing numerical calculations in the calculation module B, deriving the working point of the fan and cooling event timing, ensuring maximum efficiency of the cooling system.
A method of expanding T lymphocytes in a microfluidic device having a flow path and a sequestration pen fluidically connected to the flow path , wherein the flow path comprises a microfluidic channel , wherein the sequestration pen comprises an isolation region and a connection region fluidically connecting the isolation region to the channel , and wherein the isolation region of the sequestration pen is an unswept region of the microfluidic device , the method comprising: introducing one or more T lymphocytes into the sequestration pen in the microfluidic device ; contacting the one or more T lymphocytes with an activating agent; perfusing culture medium through the flow path of the microfluidic device for a period of time sufficient to allow the one or more T lymphocytes introduced into the sequestration pen to undergo expansion; and exporting the expanded T lymphocytes from the microfluidic device , wherein at least one inner surface of the sequestration pen comprises a coating material, wherein the coating material is covalently bound to the at least one inner surface of the sequestration pen , and wherein the coating material comprises a polymer comprising alkylene ether moieties, saccharide moieties, amino acid moieties, or a combination thereof. introducing one or more T lymphocytes into the sequestration pen in the microfluidic device ; contacting the one or more T lymphocytes with an activating agent; perfusing culture medium through the flow path of the microfluidic device for a period of time sufficient to allow the one or more T lymphocytes introduced into the sequestration pen to undergo expansion; and exporting the expanded T lymphocytes from the microfluidic device , wherein at least one inner surface of the sequestration pen comprises a coating material, wherein the coating material is covalently bound to the at least one inner surface of the sequestration pen , and wherein the coating material comprises a polymer comprising alkylene ether moieties, saccharide moieties, amino acid moieties, or a combination thereof.