mhurhangee/patent-ind-claim-en huggingface dataset:
A screwdriver , comprising: a handle extending from a proximal end to a distal end and having a handle channel extending therethrough; a shaft extending from a proximal end insertable into the handle channel to a distal end , the distal end of the shaft including a bit opening sized to receive a proximal portion of a bit therein; a locking sleeve having a locking sleeve channel slidably receiving the shaft therethrough, the locking sleeve being positionable over the shaft distally of the handle ; a spring slidably received within the locking sleeve channel and over the shaft ; and a coupling member received over the shaft distally of the locking sleeve , the coupling member being movable between a biased first configuration in which a locking element protrudes radially into the bit opening to lockingly engage a bit received therein and a second configuration in which the coupling member is retracted proximally to compress the spring and permit the locking element to move radially out of the bit opening to permit the bit to be removed therefrom; wherein the handle , shaft , locking sleeve , spring and coupling member are removably attached to one another, characterized in that the locking sleeve includes a plurality of openings extending therethrough to aid in sterilization thereof. a handle extending from a proximal end to a distal end and having a handle channel extending therethrough; a shaft extending from a proximal end insertable into the handle channel to a distal end , the distal end of the shaft including a bit opening sized to receive a proximal portion of a bit therein; a locking sleeve having a locking sleeve channel slidably receiving the shaft therethrough, the locking sleeve being positionable over the shaft distally of the handle ; a spring slidably received within the locking sleeve channel and over the shaft ; and a coupling member received over the shaft distally of the locking sleeve , the coupling member being movable between a biased first configuration in which a locking element protrudes radially into the bit opening to lockingly engage a bit received therein and a second configuration in which the coupling member is retracted proximally to compress the spring and permit the locking element to move radially out of the bit opening to permit the bit to be removed therefrom; wherein the handle , shaft , locking sleeve , spring and coupling member are removably attached to one another, characterized in that the locking sleeve includes a plurality of openings extending therethrough to aid in sterilization thereof.
An imaging system , comprising: a rotating portion comprising a rotor and at least one imaging component mounted to the rotor , the imaging component comprising an x-ray source and a detector ; and a gantry comprising an outer shell that substantially fully encloses the rotating portion over one or more sides of the rotating portion, the outer shell further comprising a mounting surface for a bearing that enables the rotating portion to rotate 360° within the outer shell, wherein the outer shell comprises a circumferential wall that substantially fully encloses the rotating portion around an outer circumference of the rotating portion and a first side wall that substantially fully encloses the rotating portion around one side of the rotating portion ; and the imaging system further comprises a bearing system located within the gantry for enabling the rotation of the rotating portion with respect to the outer shell of the gantry , characterized in that the bearing system comprises a first race fixed to the outer shell , a second race fixed to the rotating portion , and a bearing element between the first race and the second race that allows the first race and the second race to rotate concentrically relative to one another; and the imaging system further comprises a battery system located on the rotating portion for delivering power to the imaging component. a rotating portion comprising a rotor and at least one imaging component mounted to the rotor , the imaging component comprising an x-ray source and a detector ; and a gantry comprising an outer shell that substantially fully encloses the rotating portion over one or more sides of the rotating portion, the outer shell further comprising a mounting surface for a bearing that enables the rotating portion to rotate 360° within the outer shell, wherein the outer shell comprises a circumferential wall that substantially fully encloses the rotating portion around an outer circumference of the rotating portion and a first side wall that substantially fully encloses the rotating portion around one side of the rotating portion ; and the imaging system further comprises a bearing system located within the gantry for enabling the rotation of the rotating portion with respect to the outer shell of the gantry , characterized in that the bearing system comprises a first race fixed to the outer shell , a second race fixed to the rotating portion , and a bearing element between the first race and the second race that allows the first race and the second race to rotate concentrically relative to one another; and the imaging system further comprises a battery system located on the rotating portion for delivering power to the imaging component.
A composite product comprising mineral fibers bonded by a binder obtained upon curing from an aqueous binder composition consisting essentially of (i) 0.2 to 15.0 wt% (based on total aqueous binder composition) of one or more cellulose ethers, (ii) optionally one or more adjuvants selected from waxes, dyes, dedusters, release agents and/or catalyst, (iii) optionally one or more wet strength improving additives selected from ammonium salts of inorganic acids and azetidinium compounds in a range of 0.5 to 20 wt%, (iv) optionally a viscosity reducing agent in the range of 0.5 to 30 wt% based on the bulk composition, and (v) possibly reaction products thereof.
A medical system, comprising: a medical device controlled according to a control protocol; and a controller configured to: receive a measured data set containing a current value at a current time and past values at past times of a physiologic signal measured on a recipient, the physiologic signal being affected by motion; calculate a difference signal at the current time based on the measured data set, the difference signal being a set of finite differences of the physiologic signal approximating a set of derivatives of the physiologic signal and including a first order finite difference of the physiologic signal at the current time and a second order finite difference of the physiologic signal at the current time; predict a difference value using the difference signal and a prediction algorithm, the difference value being a difference between a predicted future value of the physiologic signal at a future time and the current value; calculate the predicted future value based on the difference value and the current value; and update the control protocol according to the predicted future value. a medical device controlled according to a control protocol; and a controller configured to: receive a measured data set containing a current value at a current time and past values at past times of a physiologic signal measured on a recipient, the physiologic signal being affected by motion; calculate a difference signal at the current time based on the measured data set, the difference signal being a set of finite differences of the physiologic signal approximating a set of derivatives of the physiologic signal and including a first order finite difference of the physiologic signal at the current time and a second order finite difference of the physiologic signal at the current time; predict a difference value using the difference signal and a prediction algorithm, the difference value being a difference between a predicted future value of the physiologic signal at a future time and the current value; calculate the predicted future value based on the difference value and the current value; and update the control protocol according to the predicted future value. receive a measured data set containing a current value at a current time and past values at past times of a physiologic signal measured on a recipient, the physiologic signal being affected by motion; calculate a difference signal at the current time based on the measured data set, the difference signal being a set of finite differences of the physiologic signal approximating a set of derivatives of the physiologic signal and including a first order finite difference of the physiologic signal at the current time and a second order finite difference of the physiologic signal at the current time; predict a difference value using the difference signal and a prediction algorithm, the difference value being a difference between a predicted future value of the physiologic signal at a future time and the current value; calculate the predicted future value based on the difference value and the current value; and update the control protocol according to the predicted future value.
A method performed by a user equipment, UE, the method comprising: • receiving (step 510), from a network, a value of a first index, the value of the first index indicating a non-zero-power CSI reference signal, CSI-RS, resource, a value of a second index, the value of the second index indicating a zero-power CSI-RS resource, a value of a third index for indicating a CSI-RS resource to be used for interference measurement, a plurality of values of a fourth index, wherein each value among the plurality of values of the fourth index indicates a corresponding channel quality indicator, CQI, report configuration; • receiving (step 610), from the network, a plurality of values of a fifth index, wherein each value among the plurality of values of the fifth index indicates a different periodic CQI report configuration among those CQI report configurations indicated by the fourth index; • sending (step 620), to the network, a CSI report of a CQI report configuration having a lowest value among the values of the fifth index in case of collision between CSI reports of a same serving cell of the UE with a Physical Uplink Control Channel, PUCCH, reporting type of the same priority; and • dropping CSI reports for all other CQI report configurations among those CQI report configurations indicated by the fourth index. • receiving (step 510), from a network, a value of a first index, the value of the first index indicating a non-zero-power CSI reference signal, CSI-RS, resource, a value of a second index, the value of the second index indicating a zero-power CSI-RS resource, a value of a third index for indicating a CSI-RS resource to be used for interference measurement, a plurality of values of a fourth index, wherein each value among the plurality of values of the fourth index indicates a corresponding channel quality indicator, CQI, report configuration; • receiving (step 610), from the network, a plurality of values of a fifth index, wherein each value among the plurality of values of the fifth index indicates a different periodic CQI report configuration among those CQI report configurations indicated by the fourth index; • sending (step 620), to the network, a CSI report of a CQI report configuration having a lowest value among the values of the fifth index in case of collision between CSI reports of a same serving cell of the UE with a Physical Uplink Control Channel, PUCCH, reporting type of the same priority; and • dropping CSI reports for all other CQI report configurations among those CQI report configurations indicated by the fourth index.
Method of installing a bucket foundation structure comprising one, two, three or more skirts , into soils of varying characteristics in a controlled manner, where the method comprises two stages: a first stage being a design phase and a second stage being an installation phase, such that in the first stage, design parameters are determined relating to the loads on the finished foundation structure; soil profile on the location of installation; allowable installation tolerances, which design parameters are used to estimate the minimum diameter and length of the skirt(s) of the bucket , which minimum diameter and length of the skirt(s) of the bucket is used to simulate load situations and penetration into foundation soil , in order to predict necessary penetration force , required suction inside the bucket and critical suction pressures , in which second stage the necessary penetration force , required suction inside the bucket and critical suction pressures determined in the first stage are used in order to control the installation of the bucket foundation structure ; and that a control system activates and/or deactivates different means arranged in and around the bucket foundation structure for creating the penetration force needed and wherein the control system during the second stage controls the penetration of the bucket foundation structure by activating control actions by creating one or more of the following: - constant flow of fluid, air/gas or steam in one or more chambers; - constant pressure established by fluid, air/gas or steam in one or more chambers; - variations of flow or pressure established by fluid, air/gas or steam in one or more chambers; - pulsating flow and/or pressure established by fluid, air/gas or steam in one or more chambers, wherein - the necessary penetration force, required suction, and critical suction pressures are used as input for a control system in the second stage, and further - sensors provided in installation equipment, such as pumps , in conduits and on the bucket foundation structure feed input to the control system , where the input from the sensors are compared to the necessary penetration force , required suction inside the bucket and critical suction pressures derived in the first stage. - constant flow of fluid, air/gas or steam in one or more chambers; - constant pressure established by fluid, air/gas or steam in one or more chambers; - variations of flow or pressure established by fluid, air/gas or steam in one or more chambers; - pulsating flow and/or pressure established by fluid, air/gas or steam in one or more chambers, wherein - the necessary penetration force, required suction, and critical suction pressures are used as input for a control system in the second stage, and further - sensors provided in installation equipment, such as pumps , in conduits and on the bucket foundation structure feed input to the control system , where the input from the sensors are compared to the necessary penetration force , required suction inside the bucket and critical suction pressures derived in the first stage.
A method in a user equipment for transmitting uplink control information in time slots in a subframe over a radio channel to a radio base station , the user equipment and radio base station being comprised in a radio communications network, which radio channel is arranged to carry uplink control information, and the uplink control information being comprised in a block of bits, the method comprises: - mapping the block of bits to a sequence of complex-valued modulation symbols, - block spreading the sequence of complex-valued modulation symbols across Discrete Fourier Transform Spread - Orthogonal Frequency Division Multiplexing, DFTS-OFDM, symbols by applying a spreading sequence to the sequence of complex-valued modulation symbols, to achieve a block-spread sequence of complex-valued modulation symbols, - transforming , per DFTS-OFDM symbol, the block-spread sequence of complex-valued modulation symbols by performing an operation that corresponds to applying, for each DFTS-OFDM symbol, to a part of the block-spread sequence of complex-valued modulation symbols corresponding to that DFTS-OFDM symbol, a matrix comprising matrix elements, which matrix elements are cyclically shifted depending on a DFTS-OFDM symbol index and/or slot index, and - transmitting the block-spread sequence of complex-valued modulation symbols that has been transformed over the radio channel to the radio base station . - mapping the block of bits to a sequence of complex-valued modulation symbols, - block spreading the sequence of complex-valued modulation symbols across Discrete Fourier Transform Spread - Orthogonal Frequency Division Multiplexing, DFTS-OFDM, symbols by applying a spreading sequence to the sequence of complex-valued modulation symbols, to achieve a block-spread sequence of complex-valued modulation symbols, - transforming , per DFTS-OFDM symbol, the block-spread sequence of complex-valued modulation symbols by performing an operation that corresponds to applying, for each DFTS-OFDM symbol, to a part of the block-spread sequence of complex-valued modulation symbols corresponding to that DFTS-OFDM symbol, a matrix comprising matrix elements, which matrix elements are cyclically shifted depending on a DFTS-OFDM symbol index and/or slot index, and - transmitting the block-spread sequence of complex-valued modulation symbols that has been transformed over the radio channel to the radio base station .
A sealing apparatus for a high-pressure tank for storing a gaseous fuel of a vehicle, comprising: a liner configured to accommodate a high-pressure fluid; a connection boss provided at an inlet of the liner and made of metal, comprising a first connection boss part coupled to an inner surface of the inlet and a second connection boss part coupled to an outer surface of the inlet and having a tapered shape with a relative narrow upper side and a relatively wide lower side, the second connection boss part having an outer tilted surface; and a coupling member that can be fixed to a chassis of the vehicle, configured to come into surface contact with the outer tilted surface of the second connection boss part and having an inner tilted surface corresponding to a shape of the outer tilted surface of the second connection boss part so that a diameter of a lower side of the tilted inner surface is larger than a diameter of an upper side of the tilted inner surface, characterized in that the inner tilted surface of the coupling member comes into surface contact with and is coupled to the outer tilted surface of the second connection boss part without mechanical combination, and in that the coupling member and the second connection boss part can be pressed against each other so as to implement airtightness. a liner configured to accommodate a high-pressure fluid; a connection boss provided at an inlet of the liner and made of metal, comprising a first connection boss part coupled to an inner surface of the inlet and a second connection boss part coupled to an outer surface of the inlet and having a tapered shape with a relative narrow upper side and a relatively wide lower side, the second connection boss part having an outer tilted surface; and a coupling member that can be fixed to a chassis of the vehicle, configured to come into surface contact with the outer tilted surface of the second connection boss part and having an inner tilted surface corresponding to a shape of the outer tilted surface of the second connection boss part so that a diameter of a lower side of the tilted inner surface is larger than a diameter of an upper side of the tilted inner surface, characterized in that the inner tilted surface of the coupling member comes into surface contact with and is coupled to the outer tilted surface of the second connection boss part without mechanical combination, and in that the coupling member and the second connection boss part can be pressed against each other so as to implement airtightness.
A composition for a gas seal member containing an elastomer and a fibrous carbon nanostructure, wherein the fibrous carbon nanostructure includes single-walled carbon nanotubes, and the fibrous carbon nanostructure is included in a proportion of at least 0.1 parts by mass and no greater than 12 parts by mass per 100 parts by mass of the elastomer, and the fibrous carbon nanostructure exhibits a convex upward shape in a t-plot obtained from an adsorption isotherm, the measuring method for such isotherm being disclosed in the description.
A lighting apparatus comprising: at least one light-emitting diode , LED, configured to receive an optical signal from a source external to the lighting apparatus; and a control circuit coupled to the at least one LED and configured to adjust a light output of the at least one LED responsive to the received optical signal and a control input; said lighting apparatus being characterised in that said control circuit is further configured to adjust the control input response of the lighting apparatus responsive to the received optical signal , wherein the control circuit is further configured to inhibit further adjustment of the control input response responsive to the received optical signal . at least one light-emitting diode , LED, configured to receive an optical signal from a source external to the lighting apparatus; and a control circuit coupled to the at least one LED and configured to adjust a light output of the at least one LED responsive to the received optical signal and a control input; said lighting apparatus being characterised in that said control circuit is further configured to adjust the control input response of the lighting apparatus responsive to the received optical signal , wherein the control circuit is further configured to inhibit further adjustment of the control input response responsive to the received optical signal .
A two-part curable composition comprising a first reagent containing at least a component (a) shown below and a second reagent containing at least a component (c) shown below, in which components (b) and (d) shown below are each contained in at least one of the first and second reagents, the contents of the component (b) contained in the first and second reagents being 5-50 parts by mass relative to 100 parts of the component (a) in terms of the component (b) contained in the first reagent and being 5-50 parts by mass relative to 100 parts by mass of the component (c) in terms of the component (b) contained in the second reagent, and the total amount of the component (d) contained in the first and second reagents being 0.0005-10 parts by mass relative to 100 parts by mass of the component (c), Component (a): a 2-cyanoacrylic acid ester; Component (b): an elastomer; Component (c) : a polymer having a hydrolyzable silyl group; and Component (d): a curing catalyst for the polymer (c). Component (a): a 2-cyanoacrylic acid ester; Component (b): an elastomer; Component (c) : a polymer having a hydrolyzable silyl group; and Component (d): a curing catalyst for the polymer (c).