mhurhangee/patent-ind-claim-en huggingface dataset:
Toolholder for use with a cutting element in a cutting process, wherein the toolholder comprises: - a front end ; - a rear end ; and - a longitudinal axis (A) extending from the front end to the rear end , wherein the toolholder further comprising: - a cutting portion at the front end ; and - a mounting portion at the rear end ; wherein the cutting portion comprises at least one cutting element interface for receiving a cutting element and wherein the mounting portion comprises a coupling interface adapted to be coupled to a connecting tool unit ; wherein the toolholder further comprises at least one sensor for detecting an environmental condition; characterized in that the toolholder comprises a control unit operatively connected to the at least one sensor , wherein the control unit comprises: - a crossbar array of resistive memory devices, and - a power source operatively connected to the crossbar array , wherein the crossbar array comprises a neural network stored thereon, and wherein the neural network is adapted to determine a condition of the cutting element or of the cutting process based on the environmental condition detected by the at least one sensor . - a front end ; - a rear end ; and - a longitudinal axis (A) extending from the front end to the rear end , wherein the toolholder further comprising: - a cutting portion at the front end ; and - a mounting portion at the rear end ; wherein - a cutting portion at the front end ; and - a mounting portion at the rear end ; wherein the cutting portion comprises at least one cutting element interface for receiving a cutting element and wherein the mounting portion comprises a coupling interface adapted to be coupled to a connecting tool unit ; wherein the toolholder further comprises at least one sensor for detecting an environmental condition; characterized in that the toolholder comprises a control unit operatively connected to the at least one sensor , wherein the control unit comprises: - a crossbar array of resistive memory devices, and - a power source operatively connected to the crossbar array , wherein the crossbar array comprises a neural network stored thereon, and wherein the neural network is adapted to determine a condition of the cutting element or of the cutting process based on the environmental condition detected by the at least one sensor . - a crossbar array of resistive memory devices, and - a power source operatively connected to the crossbar array , wherein the crossbar array comprises a neural network stored thereon, and wherein the neural network is adapted to determine a condition of the cutting element or of the cutting process based on the environmental condition detected by the at least one sensor .
An aqueous thermosetting coating composition comprising: (a) a continuous phase comprising water, and (b) a dispersed phase comprising: (i) pigments; (ii) polymeric particles prepared from the polymerization of a mixture of ethylenically unsaturated compounds including ethylenically unsaturated monomers comprising: (A) a multi-ethylenically unsaturated monomer and (B) an aldo or keto group-containing ethylenically unsaturated monomer; and a polyhydrazide. (a) a continuous phase comprising water, and (b) a dispersed phase comprising: (i) pigments; (ii) polymeric particles prepared from the polymerization of a mixture of ethylenically unsaturated compounds including ethylenically unsaturated monomers comprising: (A) a multi-ethylenically unsaturated monomer and (B) an aldo or keto group-containing ethylenically unsaturated monomer; and a polyhydrazide. (i) pigments; (ii) polymeric particles prepared from the polymerization of a mixture of ethylenically unsaturated compounds including ethylenically unsaturated monomers comprising: (A) a multi-ethylenically unsaturated monomer and (B) an aldo or keto group-containing ethylenically unsaturated monomer; and a polyhydrazide. (A) a multi-ethylenically unsaturated monomer and (B) an aldo or keto group-containing ethylenically unsaturated monomer; and
A device comprising: a first full bridge rectifier configured to receive power from an alternating current, i.e., AC, power source, the first full bridge rectifier having direct current, i.e., DC output nodes ; a second full bridge rectifier configured to receive power from the AC power source, the second full bridge rectifier having DC output nodes , wherein the second full bridge rectifier is coupled to receive AC power in series with the first full bridge rectifier; a first set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the first full bridge rectifier; a second set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the second full bridge rectifier; characterized in that the device further comprises a first AC load and a second AC load , wherein a first node of the first AC load is connected to an AC node of the first rectifier and a second node of the first AC load is connected to an AC node of the second rectifier; and a switch configured to selectively connect the second AC load in parallel with the first AC load and disconnect power to the second AC load while the first AC load continues receiving power. a first full bridge rectifier configured to receive power from an alternating current, i.e., AC, power source, the first full bridge rectifier having direct current, i.e., DC output nodes ; a second full bridge rectifier configured to receive power from the AC power source, the second full bridge rectifier having DC output nodes , wherein the second full bridge rectifier is coupled to receive AC power in series with the first full bridge rectifier; a first set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the first full bridge rectifier; a second set of light emitting diodes (D5, 140, 142, 144, 146) coupled to the DC output nodes of the second full bridge rectifier; characterized in that the device further comprises a first AC load and a second AC load , wherein a first node of the first AC load is connected to an AC node of the first rectifier and a second node of the first AC load is connected to an AC node of the second rectifier; and a switch configured to selectively connect the second AC load in parallel with the first AC load and disconnect power to the second AC load while the first AC load continues receiving power.
Apparatus designed to determine the temperature of a medium in a tube or in a vessel, wherein the apparatus can be mounted or inserted in a tube or vessel wall , with a measuring tube projecting into the medium , said measuring tube being closed by a measuring tube floor at the end facing towards the medium , with a resistance-based temperature sensor as a main sensor and a thermoelectric voltage-based temperature sensor as a secondary sensor , wherein the main sensor and the secondary sensor transmit their measured values to an evaluation/transmitter unit , wherein the main sensor and the secondary sensor are arranged in the measuring tube in relation to the longitudinal axis of the measuring tube with a fixed offset in relation to one another, and the main sensor is mounted closer to the measuring tube floor than the secondary sensor , wherein the main sensor and the secondary sensor each has an electrical measuring circuit, said circuits being electrically isolated in relation to the measuring tube , wherein changes to the electrical isolation of the measuring circuits differently affect the measured values of the main sensor and of the secondary sensor , and wherein the evaluation/transmitter unit is designed to generate an error message concerning the integrity of the apparatus with regard to the electrical isolation if the value of the difference (|ΔT|) between the measured values of the main sensor and of the secondary sensor exceed a first predefined threshold (ΔT max ) and wherein the apparatus is designed to correct a mounting error (EF) using the main sensor and the secondary sensor arranged along the longitudinal axis at an fixed offset in relation to one another.
A pressure relief valve having: a first tubing connectable to a fuel tank of a vehicle, the vehicle including a vehicle computer; a second tubing connectable to a fuel vapor treating device a controller , configured for receiving an actuation signal from the vehicle computer, wherein the controller includes a circuit board which forms a pulsed signal as required; an externally actuated, EA, valve disposed between the first tubing and the second tubing and being configured for pulsed actuation by said controller , thereby allowing pulsed fluid flow through a primary port disposed between said first tubing and said second tubing . a first tubing connectable to a fuel tank of a vehicle, the vehicle including a vehicle computer; a second tubing connectable to a fuel vapor treating device a controller , configured for receiving an actuation signal from the vehicle computer, wherein the controller includes a circuit board which forms a pulsed signal as required; an externally actuated, EA, valve disposed between the first tubing and the second tubing and being configured for pulsed actuation by said controller , thereby allowing pulsed fluid flow through a primary port disposed between said first tubing and said second tubing .
A cable management system , comprising: a cable-retaining spacer block including a plurality of block components stacked relative to one another, the cable-retaining spacer block defining a plurality of cylindrical passages arranged to define a rectangular array, each cylindrical passage of the plurality of cylindrical passages configured to receive a transmission cable ("T"); and first and second brackets , characterized in that some or all of the block components include cantilever engagement feet extending outwardly from opposing ends thereof to engage the first and second brackets such that the first and second brackets support first and second end portions, respectively, of the cable-retaining spacer block , each of the first and second brackets configured for suspension from a support cable ("S") to thereby suspend the cable-retaining spacer block between and from the support cables ("S"). a cable-retaining spacer block including a plurality of block components stacked relative to one another, the cable-retaining spacer block defining a plurality of cylindrical passages arranged to define a rectangular array, each cylindrical passage of the plurality of cylindrical passages configured to receive a transmission cable ("T"); and first and second brackets , characterized in that some or all of the block components include cantilever engagement feet extending outwardly from opposing ends thereof to engage the first and second brackets such that the first and second brackets support first and second end portions, respectively, of the cable-retaining spacer block , each of the first and second brackets configured for suspension from a support cable ("S") to thereby suspend the cable-retaining spacer block between and from the support cables ("S").
An apparatus for decoding encoded video data, the video data comprising one or more frames, each frame being partitioned into a plurality of regions, each region comprising one or more video coding blocks, wherein the apparatus comprises: a decoding unit configured to decode the encoded video data for providing a residual video coding block associated with a current video coding block of a current frame; a prediction unit configured to generate for the current video coding block a predicted video coding block; a restoration unit configured to restore the current video coding block on the basis of the residual video coding block and the predicted video coding block; and a flip unit configured to flip each region of a subset of the plurality of regions of the current frame about a flip axis of the respective region, the flip axis being a symmetry axis with respect to the shape of the respective region, wherein the flip unit is further configured to determine the subset of the plurality of regions based on the encoded video data prior to flipping the regions of the subset by evaluating continuity of the image content at the borders between adjoining regions of the plurality of regions, wherein a discontinuity on the border exists between two regions, if only one of the regions has been flipped, or if the two regions do not have the same flip axis. a decoding unit configured to decode the encoded video data for providing a residual video coding block associated with a current video coding block of a current frame; a prediction unit configured to generate for the current video coding block a predicted video coding block; a restoration unit configured to restore the current video coding block on the basis of the residual video coding block and the predicted video coding block; and a flip unit configured to flip each region of a subset of the plurality of regions of the current frame about a flip axis of the respective region, the flip axis being a symmetry axis with respect to the shape of the respective region, wherein the flip unit is further configured to determine the subset of the plurality of regions based on the encoded video data prior to flipping the regions of the subset by evaluating continuity of the image content at the borders between adjoining regions of the plurality of regions, wherein a discontinuity on the border exists between two regions, if only one of the regions has been flipped, or if the two regions do not have the same flip axis.
A composition comprising aligned fibrils of a vitrified matrix gel comprising collagen and cyclodextrin (CD), wherein the composition comprises α-CD, β-CD and/or γ-CD, characterised in that the composition is multilayered and the α-CD, β-CD and/or γ-CD comprise a plurality of hydroxyl groups chemically substituted with a different functional group or moiety wherein the different functional group or moiety is a hydrophilic group.
A method for producing an aqueous extract of a cereal, said method comprising the steps of: a. providing grains of a cereal; b. subjecting the cereal grains to a step of germination thereby obtaining germinated grains, wherein said step of germination comprises incubating said grains in an aqueous solution until the grains have a water content of at least 30%, wherein at least 2 L O 2 per kg dry weight cereal grains is passed through said aqueous solution per h; c. finely dividing said germinated grains, while said germinated grains have a water content of at least 20%, with the proviso that said cereal grains do not have a water content below 20 at any time between steps b) and c); d. preparing an aqueous extract of said milled germinated grains, thereby producing an aqueous extract of the cereal. a. providing grains of a cereal; b. subjecting the cereal grains to a step of germination thereby obtaining germinated grains, wherein said step of germination comprises incubating said grains in an aqueous solution until the grains have a water content of at least 30%, wherein at least 2 L O 2 per kg dry weight cereal grains is passed through said aqueous solution per h; c. finely dividing said germinated grains, while said germinated grains have a water content of at least 20%, with the proviso that said cereal grains do not have a water content below 20 at any time between steps b) and c); d. preparing an aqueous extract of said milled germinated grains, thereby producing an aqueous extract of the cereal.
An assembly, comprising: a gearbox having a forward surface , through which a rotatable propeller shaft extends forwardly, and an aft surface opposite the forward surface ; first and second hydraulic components ; a routing plate comprising a forward side affixed to the aft surface of the gearbox , an aft side to which the first and second hydraulic components are affixed and a body , the body being formed to define interfacial pathways by which the gearbox and the first and second hydraulic components are communicative. a gearbox having a forward surface , through which a rotatable propeller shaft extends forwardly, and an aft surface opposite the forward surface ; first and second hydraulic components ; a routing plate comprising a forward side affixed to the aft surface of the gearbox , an aft side to which the first and second hydraulic components are affixed and a body , the body being formed to define interfacial pathways by which the gearbox and the first and second hydraulic components are communicative.
A method of performing a test on a tyre to record data for parameterisation of a tyre model, wherein the method is performed on a tyre mounted on a wheel and supported on a mobile axle with respect to a movable testing surface , wherein the method includes: steering the tyre with respect to the test surface so as to vary the tyre slip angle, and varying a load applied to the tyre in dependence on tyre slip angle.
Vibration-ram arrangement for introducing a material to be rammed into a ground, wherein the vibration-ram arrangement comprises: - at least one hydraulic apparatus for generating a hydraulic pressure, wherein the hydraulic apparatus has an internal-combustion engine and a hydraulic pump that is drivable by the internal-combustion engine , - at least one exciter arrangement which is configured so as to be spatially separate from the hydraulic apparatus and which by way of at least one hydraulic line is connected to the hydraulic apparatus , wherein the exciter arrangement has at least one hydraulic motor and at least one rotatably mounted unbalanced mass , wherein a hydraulic fluid is guided in a circuit that comprises the hydraulic apparatus, the hydraulic line , and the hydraulic motor , and wherein the unbalanced mass is drivable by means of the hydraulic motor so as to generate vibration movements of the exciter arrangement , characterized in that the vibration-ram arrangement has a support device on which at least the hydraulic apparatus and the exciter arrangement that is connected to the hydraulic apparatus are disposed, and in that the support device comprises a first support element on which the exciter arrangement is disposed, and in that the support device comprises a second support device on which the hydraulic apparatus is disposed, wherein the second support element by way of at least one spring element is coupled to the first support element . - at least one hydraulic apparatus for generating a hydraulic pressure, wherein the hydraulic apparatus has an internal-combustion engine and a hydraulic pump that is drivable by the internal-combustion engine , - at least one exciter arrangement which is configured so as to be spatially separate from the hydraulic apparatus and which by way of at least one hydraulic line is connected to the hydraulic apparatus , wherein the exciter arrangement has at least one hydraulic motor and at least one rotatably mounted unbalanced mass , wherein a hydraulic fluid is guided in a circuit that comprises the hydraulic apparatus, the hydraulic line , and the hydraulic motor , and wherein the unbalanced mass is drivable by means of the hydraulic motor so as to generate vibration movements of the exciter arrangement ,
A cap assembly for covering a needle shield of an injection device, the cap assembly comprising: - a collar , - a cap with a sheath (12.1) and a bottom (12.2), wherein the collar is movable along a longitudinal direction relative to the sheath (12.1) from an unlocked position (U) not engaging the sheath (12.1) towards a locked position (L), wherein in the locked position (L) the sheath (12.1) is force-lockingly engaged with the collar , thereby locking the sheath (12.1) to the needle shield , wherein the sheath (12.1) is formed as a rigid tube (12.1) adapted to receive the collar not engaging the needle shield in its unlocked position (U), wherein the cap assembly further includes the needle shield , and wherein the collar is radially compressible and formed as a conical neck narrowing towards its distal end such that the collar is radially compressed by the sheath (12.1) and force-lockingly engages the needle shield in its locked position (L) when the sheath (12.1) is moved proximally. - a collar , - a cap with a sheath (12.1) and a bottom (12.2), wherein the collar is movable along a longitudinal direction relative to the sheath (12.1) from an unlocked position (U) not engaging the sheath (12.1) towards a locked position (L), wherein in the locked position (L) the sheath (12.1) is force-lockingly engaged with the collar , thereby locking the sheath (12.1) to the needle shield , wherein the sheath (12.1) is formed as a rigid tube (12.1) adapted to receive the collar not engaging the needle shield in its unlocked position (U), wherein the cap assembly further includes the needle shield , and wherein the collar is radially compressible and formed as a conical neck narrowing towards its distal end such that the collar is radially compressed by the sheath (12.1) and force-lockingly engages the needle shield in its locked position (L) when the sheath (12.1) is moved proximally.
An apparatus for forming a three-dimensional object from a solidifiable material, comprising: a linear solidification device comprising a solidification energy source (90; 90a; 90b), a linear scanning device , and a housing, wherein the solidification energy source (90; 90a; 90b) is in optical communication with the linear scanning device , the linear scanning device is configured to scan solidification energy received from the solidification energy source in a plurality of linear patterns along a source of the solidifiable material while the linear solidification device moves in a first direction, and each linear pattern has a length along a second direction; characterized by at least one F-Theta lens (328; 330) between the linear scanning device and the source of the solidifiable material; a cylindrical lens between the solidification energy source and the linear scanning device; and a collimating lens between the solidification energy source and the cylindrical lens , wherein the collimating lens is coated with an anti-reflective coating such that the coated collimating lens transmits at least 90% of the incident light having a wavelength ranging from about 380nm to about 420nm. a linear solidification device comprising a solidification energy source (90; 90a; 90b), a linear scanning device , and a housing, wherein the solidification energy source (90; 90a; 90b) is in optical communication with the linear scanning device , the linear scanning device is configured to scan solidification energy received from the solidification energy source in a plurality of linear patterns along a source of the solidifiable material while the linear solidification device moves in a first direction, and each linear pattern has a length along a second direction; characterized by at least one F-Theta lens (328; 330) between the linear scanning device and the source of the solidifiable material; a cylindrical lens between the solidification energy source and the linear scanning device; and a collimating lens between the solidification energy source and the cylindrical lens , wherein the collimating lens is coated with an anti-reflective coating such that the coated collimating lens transmits at least 90% of the incident light having a wavelength ranging from about 380nm to about 420nm.