mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing a structural beam comprising - an elongate base part comprising a polymer, the base part having a length, defining a length direction of the beam, and having a width and a height, and - an elongate reinforcement part comprising a strip comprising a polymer and unidirectional fibers, bonded to the base part at an outer surface of the base part and extending in the length direction along the length of the base part, the strip of the elongate reinforcement part having a higher Young's modulus than the base part, the elongate base part comprising at least 60 wt. % of a composition consisting of said polymer and glass fibers or at least 60 wt. % of said polymer, the polymer of the elongate base part and of the strip both being chosen from the group consisting of thermoplastic polymers, wherein a width of the elongate reinforcement part is at least substantially equal to the width of the base part, the method comprising - feeding a composition comprising the polymer for forming the elongate base part, via an extruder, to an extrusion die the method is characterized by - feeding the elongate reinforcement part comprising the strip to the extrusion die, - forming the beam by extrusion, while bonding the elongate reinforcement part to the base part by joining the elongate reinforcement part and the composition within the extrusion die . - an elongate base part comprising a polymer, the base part having a length, defining a length direction of the beam, and having a width and a height, and - an elongate reinforcement part comprising a strip comprising a polymer and unidirectional fibers, bonded to the base part at an outer surface of the base part and extending in the length direction along the length of the base part, the elongate base part comprising at least 60 wt. % of a composition consisting of said polymer and glass fibers or at least 60 wt. % of said polymer, the polymer of the elongate base part and of the strip both being chosen from the group consisting of thermoplastic polymers, wherein a width of the elongate reinforcement part is at least substantially equal to the width of the base part, - feeding a composition comprising the polymer for forming the elongate base part, via an extruder, to an extrusion die - feeding the elongate reinforcement part comprising the strip to the extrusion die, - forming the beam by extrusion, while bonding the elongate reinforcement part to the base part by joining the elongate reinforcement part and the composition within the extrusion die .
Method for measuring a range of objects wherein a transmission unit transmits light pulses , a reception unit detects light pulses radiated back from an object to be measured and a range (d) of the object is determined from a time difference between a reception time (t2) of a light pulses and a transmission time (t1) of this light pulse , wherein light pulses having at least two different pulse energies are transmitted and wherein, as reception time (t21, t22) of a detected light pulse, the time is taken when a rising slope of the detected light pulse rises above a threshold , wherein a correction value (k(Δ)) is attributed to a difference (Δ) of reception times (t21, t22) which are measured for two different pulse energies, wherein one of the reception times (t21, t22), in particular the reception time (t21), which is measured for the light pulse having the higher pulse energy, is corrected by subtracting the correction value (k(Δ)) from this reception time (t21) and wherein, for different differences (Δ) of the reception times (t21, t22) measured for the two different pulse energies, the correction values (k(Δ)) are obtained by calibration measurements. a transmission unit transmits light pulses , a reception unit detects light pulses radiated back from an object to be measured and a range (d) of the object is determined from a time difference between a reception time (t2) of a light pulses and a transmission time (t1) of this light pulse , wherein light pulses having at least two different pulse energies are transmitted and wherein, as reception time (t21, t22) of a detected light pulse, the time is taken when a rising slope of the detected light pulse rises above a threshold , wherein a correction value (k(Δ)) is attributed to a difference (Δ) of reception times (t21, t22) which are measured for two different pulse energies, wherein one of the reception times (t21, t22), in particular the reception time (t21), which is measured for the light pulse having the higher pulse energy, is corrected by subtracting the correction value (k(Δ)) from this reception time (t21) and wherein, for different differences (Δ) of the reception times (t21, t22) measured for the two different pulse energies, the correction values (k(Δ)) are obtained by calibration measurements.
A light control element , comprising a glass film , a light control layer , a resin film , and a pressure-sensitive adhesive layer in the stated order, wherein the light control layer is sandwiched between the glass film and the resin film, which serve as base materials, wherein the light control element has a bending radius of from 20 mm to 80 mm, wherein the glass film has a thickness of from 50 um to 180 um, wherein the resin film has a thickness of from 30 um to 150 um. wherein the light control layer is sandwiched between the glass film and the resin film, which serve as base materials, wherein the light control element has a bending radius of from 20 mm to 80 mm, wherein the glass film has a thickness of from 50 um to 180 um, wherein the resin film has a thickness of from 30 um to 150 um.
A loading device (10, 10a-d) for continuously loading receiving units (4.1-4.8, 4a-d) with transport goods (T), the loading device (10, 10a-d) comprising a plurality of receiving units (4.1-4.8, 4a-d), a conveying device (2, 2a-d), wherein the conveying device (2, 2a-d) is a suspension conveying device (2, 2a-d) with a running rail (21, 21a-d), wherein the transport units on the running rail (21, 21a-d) are conveyable carriages (41.1-41.8, 41a-d), in which the receiving units (4.1 -4.8, 4a-d) are conveyable, a feeding device (3, 3a-d) for feeding transport goods (T), a transfer device (1, 1a-d), which is configured to take over the transport goods (T) from the feeding device (3, 3a-d), to convey them and to transfer them to the receiving units (4.1-4.8, 4a-d), wherein the transfer device (1, 1a-d) and the receiving units (4.1 - 4.8, 4a-d) are movable in a rectified manner during the transfer of the transport goods (T), characterized in that the transfer device (1, 1a-d) comprises transfer trays for retaining the transport goods (T), which comprise movable stopping means which are movable between a closed and an open position and, in the closed position, hold the transport goods (T) in the respective transfer tray (1 2, 1 2a, 1 2b, 12d), wherein the stopping means are preferably controllable.
A secure array access apparatus comprising: a storage that stores an array of concealed values [x' → ] of an array x' → and an array of addresses a' → corresponding to respective elements of the array of concealed values [x' → ]; a refresh unit that determines a concealed value [F] of a parameter F, an array of concealed values [x^] of an array x^, and an array of public tags b^, where ρ is random permutation, the array x^ is an array generated by permutating the array x' → with the permutation ρ, a → is an array of addresses generated by permutating the array of addresses a' → with the permutation ρ, Tag F' is a function representing injection from an address to a tag with F' being a parameter, the parameter F is a random parameter, the array b^ is an array of public tags calculated from respective elements of the array of addresses a^ with the function Tag F , when an input is a concealed value, Tag [F] executes each operation in Tag [F] while keeping the input value concealed, and when the input is an array, Tag [F] calculates each operation in Tag [F] for each of the elements of the array; and an access unit that performs a desired access to an element of the array of concealed values [x^] corresponding to a tag that is calculated from an input concealed value [j] of an access position j with the function Tag and the concealed value [F] of the parameter. a storage that stores an array of concealed values [x' → ] of an array x' → and an array of addresses a' → corresponding to respective elements of the array of concealed values [x' → ]; a refresh unit that determines a concealed value [F] of a parameter F, an array of concealed values [x^] of an array x^, and an array of public tags b^, where ρ is random permutation, the array x^ is an array generated by permutating the array x' → with the permutation ρ, a → is an array of addresses generated by permutating the array of addresses a' → with the permutation ρ, Tag F' is a function representing injection from an address to a tag with F' being a parameter, the parameter F is a random parameter, the array b^ is an array of public tags calculated from respective elements of the array of addresses a^ with the function Tag F , when an input is a concealed value, Tag [F] executes each operation in Tag [F] while keeping the input value concealed, and when the input is an array, Tag [F] calculates each operation in Tag [F] for each of the elements of the array; and an access unit that performs a desired access to an element of the array of concealed values [x^] corresponding to a tag that is calculated from an input concealed value [j] of an access position j with the function Tag and the concealed value [F] of the parameter.
A transmission apparatus comprising: control circuitry, which is configured to randomly select a single preamble number from one or more preamble numbers included in a group corresponding to a number of antenna ports to be applied to a data part of a random access signal, wherein a plurality of preamble numbers are grouped into groups according to different numbers of antenna ports usable for the data part of the random access signal, the control circuitry, which is configured to generate a preamble part of the random access signal, based on the selected single preamble number, the control circuitry, which is configured to generate the data part of the random access signal based on the number of antenna ports associated with the selected preamble number, and transmission circuitry , which is configured to transmit the random access signal including the preamble part and the data part. control circuitry, which is configured to randomly select a single preamble number from one or more preamble numbers included in a group corresponding to a number of antenna ports to be applied to a data part of a random access signal, wherein a plurality of preamble numbers are grouped into groups according to different numbers of antenna ports usable for the data part of the random access signal, the control circuitry, which is configured to generate a preamble part of the random access signal, based on the selected single preamble number, the control circuitry, which is configured to generate the data part of the random access signal based on the number of antenna ports associated with the selected preamble number, and transmission circuitry , which is configured to transmit the random access signal including the preamble part and the data part.
An apparatus comprising: a first circuitry to perform, in response to a first message from an operating system , a first process to place a computer device in a first operating mode, store state information in a volatile memory of the computer device, and start a timer for a time-out period for performing the first process, wherein first components of the computer device are in a low power state and the volatile memory is operational in the first operating mode; a second circuitry to detect, after expiration of the time-out period, a failure of the first process; and a third circuitry to perform, in response to the detected failure of the first process, a second process to place the computer device in a second operating mode and store state information in a non-volatile memory of the computer device, wherein the volatile memory is in a low power state in the second operating mode. a first circuitry to perform, in response to a first message from an operating system , a first process to place a computer device in a first operating mode, store state information in a volatile memory of the computer device, and start a timer for a time-out period for performing the first process, wherein first components of the computer device are in a low power state and the volatile memory is operational in the first operating mode; a second circuitry to detect, after expiration of the time-out period, a failure of the first process; and a third circuitry to perform, in response to the detected failure of the first process, a second process to place the computer device in a second operating mode and store state information in a non-volatile memory of the computer device, wherein the volatile memory is in a low power state in the second operating mode.
An actuator adapted to provide drive power and hold power to an external device, comprising: a motor provided for driving the external device to a determined position when the motor is energized; a switching circuit configured to energize the motor with a high voltage to drive the external device to the determined position and energize the motor with a low voltage to hold the external device in the determined position; wherein the switching circuit comprises a drive/hold switch connected with the motor , the drive/hold switch configured to select a high voltage or a low voltage, the high voltage for energizing the motor to drive the external device to the determined position, and the low voltage to hold the external device when a determined time has passed from a moment the motor is energized, where the low voltage is lower than the high voltage; and an active/return switch connected with the motor , the active/return switch is a relay configured to: in a de-energized mode, connect the motor with a combination of a diode and a zener diode and disconnect the motor from the high voltage or low voltage selected by the drive/hold switch to provide a braking load for the motor when no power is supplied to the motor and the external device is returning a stasis state under spring power; and in an energized mode, supply the high voltage or the low voltage selected by the drive/hold switch to the motor and disconnect the motor from the combination of the diode and the zener diode . a motor provided for driving the external device to a determined position when the motor is energized; a switching circuit configured to energize the motor with a high voltage to drive the external device to the determined position and energize the motor with a low voltage to hold the external device in the determined position; wherein the switching circuit comprises a drive/hold switch connected with the motor , the drive/hold switch configured to select a high voltage or a low voltage, the high voltage for energizing the motor to drive the external device to the determined position, and the low voltage to hold the external device when a determined time has passed from a moment the motor is energized, where the low voltage is lower than the high voltage; and an active/return switch connected with the motor , the active/return switch is a relay configured to: in a de-energized mode, connect the motor with a combination of a diode and a zener diode and disconnect the motor from the high voltage or low voltage selected by the drive/hold switch to provide a braking load for the motor when no power is supplied to the motor and the external device is returning a stasis state under spring power; and in an energized mode, supply the high voltage or the low voltage selected by the drive/hold switch to the motor and disconnect the motor from the combination of the diode and the zener diode .
A medical pump comprising: an external power acquisition unit that acquires power from the outside; two battery units capable of supplying power without intervention of the external power acquisition unit, wherein the two battery units include a first battery unit and a second battery unit , wherein the second battery unit is an auxiliary battery unit that supplies power in place of the first battery unit ; an AC power supply connection information processing unit, that determines whether the power acquisition unit is connected to a power supply; a first battery connection management unit and a second battery connection management unit, that detect whether the first and/or second battery is in a disconnected state, respectively; and an abnormality information storage unit that stores abnormality information of the external power acquisition unit and the two battery units, characterized in that the abnormality information includes that the external power acquisition unit is not connected to an outlet to acquire power from the outside, the first battery unit is disconnected, and the second battery unit is disconnected; wherein when the abnormality information, detecting disconnection of any two of the external power acquisition unit and the two battery units , is stored in the abnormality information storage unit , power supply abnormality state information is output. an external power acquisition unit that acquires power from the outside; two battery units capable of supplying power without intervention of the external power acquisition unit, wherein the two battery units include a first battery unit and a second battery unit , wherein the second battery unit is an auxiliary battery unit that supplies power in place of the first battery unit ; an AC power supply connection information processing unit, that determines whether the power acquisition unit is connected to a power supply; a first battery connection management unit and a second battery connection management unit, that detect whether the first and/or second battery is in a disconnected state, respectively; and an abnormality information storage unit that stores abnormality information of the external power acquisition unit and the two battery units, characterized in that the abnormality information includes that the external power acquisition unit is not connected to an outlet to acquire power from the outside, the first battery unit is disconnected, and the second battery unit is disconnected;
A method for preparing a biologically active aqueous solution or suspension containing microorganisms, comprising the steps of: i) Providing water; ii) Adding compost converted by fermentation to form a suspension, where the ratio of the volume of compost added to the volume of water provided is 1:1000 to 1:200 iii) Allow the suspension to rest in the absence of air for at least one week at a temperature of less than 15°C. i) Providing water; ii) Adding compost converted by fermentation to form a suspension, where the ratio of the volume of compost added to the volume of water provided is 1:1000 to 1:200 iii) Allow the suspension to rest in the absence of air for at least one week at a temperature of less than 15°C.
Device for dosing of disinfectants and/or cleaning agents for the preparation of ready-to-use solutions comprising a water inlet , a magnetic valve , a flow rate sensor , a water feed tank as well as an outlet , characterised in that a powder dosing device is provided, which has as a component a mixing chamber and that downstream of the water feed tank a branch is connected to the mixing chamber .
Heated hair brush (B), comprising heated protrusions (HP); non-heated protrusions (NHP); a control unit (C) arranged for controlling a temperature of the heated protrusions (HP); characterized by a mechanism (FC, SC) arranged for controlling a position of the non-heated protrusions (NHP) relative to a position of the heated protrusions (HP), wherein in a first mode (I), the non-heated protrusions (NHP) extend beyond the heated protrusions (HP), and the temperature of the heated protrusions (HP) exceeds 100 °C, and in a second mode (II), the non-heated protrusions (NHP) do not extend beyond the heated protrusions (HP), and the temperature of the heated protrusions (HP) does not exceed 50 °C. heated protrusions (HP); non-heated protrusions (NHP); a control unit (C) arranged for controlling a temperature of the heated protrusions (HP); characterized by a mechanism (FC, SC) arranged for controlling a position of the non-heated protrusions (NHP) relative to a position of the heated protrusions (HP), wherein in a first mode (I), the non-heated protrusions (NHP) extend beyond the heated protrusions (HP), and the temperature of the heated protrusions (HP) exceeds 100 °C, and in a second mode (II), the non-heated protrusions (NHP) do not extend beyond the heated protrusions (HP), and the temperature of the heated protrusions (HP) does not exceed 50 °C.
An adjustable optical lens, comprising: - a membrane , - a support for the membrane , - a fluid between the membrane and the support , and - an actuator for deforming the membrane , the actuator comprising a first and a second electrode , wherein the second electrode comprises first segments (S1, S2, S3, S4) with a first conductivity characterized in that the second electrode comprises at least one second segment (T1, T2, T3, T4) with a second conductivity, wherein the first conductivity exceeds the second conductivity, and wherein each one of the second segments (T1, T2, T3, T4) is arranged between two of the first segments (S1, S2, S3, S4), and in that a rigid ring is connected to the membrane for moving with the membrane in lateral and axial direction for ensuring that a section of the membrane surrounded by the ring has a defined circumference. - a membrane , - a support for the membrane , - a fluid between the membrane and the support , and - an actuator for deforming the membrane , the actuator comprising a first and a second electrode , wherein the second electrode comprises first segments (S1, S2, S3, S4) with a first conductivity characterized in that the second electrode comprises at least one second segment (T1, T2, T3, T4) with a second conductivity, wherein the first conductivity exceeds the second conductivity, and wherein each one of the second segments (T1, T2, T3, T4) is arranged between two of the first segments (S1, S2, S3, S4), and in that a rigid ring is connected to the membrane for moving with the membrane in lateral and axial direction for ensuring that a section of the membrane surrounded by the ring has a defined circumference.