mhurhangee/patent-ind-claim-en huggingface dataset:
A coolant pump for an internal combustion engine, having a drive shaft , a coolant pump impeller which is arranged at said drive shaft at least in a rotationally fixed manner and by means of which a coolant is adapted to be delivered into a delivery duct surrounding said coolant pump impeller , an adjustable control slide by means of which a throughflow cross-section of an annular gap between an outlet of said coolant pump impeller and said delivery duct is adapted to be controlled, a side channel pump having a side channel pump impeller which is arranged at said drive shaft at least in a rotationally fixed manner, a side channel of said side channel pump in which a pressure is adapted to be generated as a result of rotation of said side channel pump impeller , a pressure duct via which an outlet of said side channel is adapted to be fluidically connected to a first pressure chamber of said control slide , a valve via which a throughflow cross-section of said pressure duct is adapted to be closed and opened, wherein said coolant pump impeller is integrally formed with said side channel pump impeller and said side channel is formed in a first housing part on which said control slide is slidingly guided.
Arrangement comprising a housing wall , an ultrasonic converter and a damping element with a longitudinal axis (L), wherein said damping element connects the ultrasonic converter with the housing wall , wherein the ultrasonic converter has a surface in conduct with the medium , wherein from said surface ultrasonic signals are emitted to a gaseous or liquid medium, wherein the damping element is provided for the structure-borne sound attenuation between the ultrasonic converter and the housing wall , and wherein, during the operation of the ultrasonic converter, the damping element has at least one, particularly several, vibration node points , characterized in that at least a first sealing ring is arranged between the damping element and the housing wall , said sealing ring being designed to be arranged on the same axial position along the longitudinal axis of the damping element as the at least one vibration node point .
A method of wireless communication, implemented in any of a Long Term Evolution, LTE, an LTE Advanced, LTE-A and fifth Generation Network, 5G, the method comprising: receiving , by a user equipment ,UE , a configuration message indicating a capability for repetition-based uplink communications with a network entity , the configuration message including one or more configuration parameters indicating at least a duration for transmissions on an uplink communication channel and a uplink shortened transmission time interval, sTTI, pattern for transmissions on the uplink communication channel, wherein an sTTI of the sTTI pattern has a duration less than that of a legacy wireless communication technology; receiving , by the user equipment, UE , an activation message for repetition-based uplink communications from the network entity , the activation message including one or more transmission parameters indicating at least the duration for transmissions on the uplink communication channel and the uplink sTTI pattern for the transmissions on the uplink communication channel; and performing , by the UE , repetitive transmissions on the uplink communication channel for the duration indicated by the one or more transmission parameters in the activation message , the repetitive transmissions being configured based on the uplink sTTI pattern. receiving , by a user equipment ,UE , a configuration message indicating a capability for repetition-based uplink communications with a network entity , the configuration message including one or more configuration parameters indicating at least a duration for transmissions on an uplink communication channel and a uplink shortened transmission time interval, sTTI, pattern for transmissions on the uplink communication channel, wherein an sTTI of the sTTI pattern has a duration less than that of a legacy wireless communication technology; receiving , by the user equipment, UE , an activation message for repetition-based uplink communications from the network entity , the activation message including one or more transmission parameters indicating at least the duration for transmissions on the uplink communication channel and the uplink sTTI pattern for the transmissions on the uplink communication channel; and performing , by the UE , repetitive transmissions on the uplink communication channel for the duration indicated by the one or more transmission parameters in the activation message , the repetitive transmissions being configured based on the uplink sTTI pattern.
A system for simultaneously driving a plurality of antennas for generation of an electromagnetic field around a vehicle , the system comprising: a first terminal; a second terminal; a plurality of terminals including the first terminal and the second terminal; a first driver coupled to the first terminal; a second driver coupled to the second terminal; a circuit configured to generate an indication of a phase difference between a first current through the first terminal and a second current through the second terminal; a control circuit configured to enable the first driver and the second driver to concurrently drive a first signal through the first terminal and a second signal through the second terminal, respectively, configured to adjust a delay between the first signal and the second signal based on the indication of the phase difference and a predetermined target phase difference, and configured to select for operation the first terminal and the second terminal from the plurality of terminals, wherein other terminals of the plurality of terminals are disabled while the first terminal and the second terminal are selected for operation; a first antenna coupled to the first terminal, the first antenna being configured to transmit a first Low Frequency (LF) signal in response to the first signal; and a second antenna coupled to the second terminal, the second antenna being configured to transmit a second LF signal in response to the second signal. a first terminal; a second terminal; a plurality of terminals including the first terminal and the second terminal; a first driver coupled to the first terminal; a second driver coupled to the second terminal; a circuit configured to generate an indication of a phase difference between a first current through the first terminal and a second current through the second terminal; a control circuit configured to enable the first driver and the second driver to concurrently drive a first signal through the first terminal and a second signal through the second terminal, respectively, configured to adjust a delay between the first signal and the second signal based on the indication of the phase difference and a predetermined target phase difference, and configured to select for operation the first terminal and the second terminal from the plurality of terminals, wherein other terminals of the plurality of terminals are disabled while the first terminal and the second terminal are selected for operation; a first antenna coupled to the first terminal, the first antenna being configured to transmit a first Low Frequency (LF) signal in response to the first signal; and a second antenna coupled to the second terminal, the second antenna being configured to transmit a second LF signal in response to the second signal.
A melt impregnation device, including a fiber pre-dispersion area for heating and dispersing a continuous fiber band, and a melt impregnation area for impregnating the continuous fiber band, wherein, the melt impregnation area includes a resin melt-distributing runner and an impregnation runner; the impregnation runner includes an upper die and a lower die , both a lower surface of the upper die and an upper surface of the lower die have a corrugated shape, and both have at least one peak and at least one trough , the peak and the trough on the lower surface of the upper die correspond to the trough and the peak on the upper surface of the lower die respectively, an impregnation chamber with a corrugated shape for impregnating the continuous fiber band is formed between the lower surface of the upper die and the upper surface of the lower die , the resin melt-distributing runner is connected with a peak of the impregnation chamber or a trough of the impregnation chamber by a piping, characterized in that when the resin melt-distributing runner is connected with a peak position of the impregnation chamber, a chamber vertical height of the peak position of the impregnation chamber is larger than a chamber vertical height of a trough position of the impregnation chamber, and when the resin melt-distributing runner is connected with the trough position of the impregnation chamber, the chamber vertical height of the trough position of the impregnation chamber is larger than the chamber vertical height of the peak position of the impregnation chamber.
Medical apparatus having a system for generating an external magnetic field and an endoscope which is embodied for magnetic navigation through the external magnetic field, characterised in that the endoscope is embodied with an endoscope head which can be inserted into a cavity, and with an endoscope tube which is connected to the endoscope head , wherein the endoscope head comprises - a housing , on the outer wall of which a thread is arranged at least in a partial area for generating forward and backward movements of the endoscope head with the help of rotations, and - at least one camera which delivers images from the interior of the cavity, wherein at least one magnetic element for generating a torque onto the endoscope head by interaction with an external magnetic field is provided on the endoscope head and the endoscope tube is rotationally decoupled from the housing . - a housing , on the outer wall of which a thread is arranged at least in a partial area for generating forward and backward movements of the endoscope head with the help of rotations, and - at least one camera which delivers images from the interior of the cavity,
An ultrasonic wave atomizing device for solution atomization, comprising: a solution storage container containing a solution in which at least an organic solvent and an active ingredient are mixed and whose viscosity is 1.7 mPa·s (at 20 °C) to 5.0 mPa·s (at 20 °C); a liquid absorbent wick for absorbing the solution from the solution storage container ; and a vibrating plate which has multiple micropores penetrating the vibrating plate in a thickness direction and atomizes the solution by vibration of a piezoelectric vibrator which generates ultrasonic vibration when supplied with electricity, the vibrating plate having a convex part which has a frustum shape and is supplied with the solution via the liquid absorbent wick . a solution storage container containing a solution in which at least an organic solvent and an active ingredient are mixed and whose viscosity is 1.7 mPa·s (at 20 °C) to 5.0 mPa·s (at 20 °C); a liquid absorbent wick for absorbing the solution from the solution storage container ; and a vibrating plate which has multiple micropores penetrating the vibrating plate in a thickness direction and atomizes the solution by vibration of a piezoelectric vibrator which generates ultrasonic vibration when supplied with electricity, the vibrating plate having a convex part which has a frustum shape and is supplied with the solution via the liquid absorbent wick .
An electronic device comprising: a housing including a front surface and a lower surface , the front surface having a first opening and the lower surface having a second opening ; a bracket disposed inside the housing ; a camera that obtains an image of an external object through the first opening and is disposed on a first surface of the bracket ; an image output module that outputs an image to an outside through the second opening and is disposed on a second surface of the bracket ; a circuit board electrically connected with the camera and the image output module and disposed on a third surface of the bracket ; and a semi-transparent member includes at least one semi-transparent lens disposed under the image output module , at a specified angle with respect to a direction of outputting the image such that the image is displayed for a user; wherein the camera is disposed to be inclined at a first angle with respect to a line perpendicular to a direction that the front surface faces, and the semi-transparent lens is disposed to be inclined at a second angle, which is greater than the first angle, with respect to the perpendicular line. a housing including a front surface and a lower surface , the front surface having a first opening and the lower surface having a second opening ; a bracket disposed inside the housing ; a camera that obtains an image of an external object through the first opening and is disposed on a first surface of the bracket ; an image output module that outputs an image to an outside through the second opening and is disposed on a second surface of the bracket ; a circuit board electrically connected with the camera and the image output module and disposed on a third surface of the bracket ; and a semi-transparent member includes at least one semi-transparent lens disposed under the image output module , at a specified angle with respect to a direction of outputting the image such that the image is displayed for a user; wherein the camera is disposed to be inclined at a first angle with respect to a line perpendicular to a direction that the front surface faces, and the semi-transparent lens is disposed to be inclined at a second angle, which is greater than the first angle, with respect to the perpendicular line.
A physical activity training system comprising a paddle configured to be held, in use, by a trainer and to provide a physical target with which the trainee is expected to interact in each of a plurality of trainee activity modes, the system comprising: at least one sensor module in the paddle operative to execute real-time measurements of at least one aspect of the trainee's interaction with the paddle , wherein the paddle comprises a height sensor ; and an output generator including at least one indicator on said paddle for providing an indication sensible by the trainee and operative to enter a plurality of selectable trainee-detectable states each for a respective time period, thereby to indicate to the trainee which of the plurality of trainee activity modes governs within each said time period, and a processor operative to monitor at least one trainee's interaction with the paddle within the modes, at least by generating, for storage in computer memory, time-stamped records of said states and associated with said records, trainee scores derivable from said measurements generated by said module. at least one sensor module in the paddle operative to execute real-time measurements of at least one aspect of the trainee's interaction with the paddle , wherein the paddle comprises a height sensor ; and an output generator including at least one indicator on said paddle for providing an indication sensible by the trainee and operative to enter a plurality of selectable trainee-detectable states each for a respective time period, thereby to indicate to the trainee which of the plurality of trainee activity modes governs within each said time period, and a processor operative to monitor at least one trainee's interaction with the paddle within the modes, at least by generating, for storage in computer memory, time-stamped records of said states and associated with said records, trainee scores derivable from said measurements generated by said module.
A separator for a secondary battery, comprising: a substrate; and a coating provided on at least one surface of the substrate; wherein the coating comprise inorganic particles and organic particles, the organic particles comprise first organic particles embedded in the inorganic particles and forming protrusions on the surface of the coating; the first organic particles are secondary particles, have a number-average particle size of ≥ 13 μm and an area coverage on the coating surface of ≤ 10%, wherein the number-average particle size and the area coverage on the coating surface is measured as described in the description. a substrate; and a coating provided on at least one surface of the substrate; wherein the coating comprise inorganic particles and organic particles, the organic particles comprise first organic particles embedded in the inorganic particles and forming protrusions on the surface of the coating; the first organic particles are secondary particles, have a number-average particle size of ≥ 13 μm and an area coverage on the coating surface of ≤ 10%, wherein the number-average particle size and the area coverage on the coating surface is measured as described in the description.
A protective helmet for rotational energy management, comprising: an outer energy management layer formed of a first material comprising an outer surface and an inner surface opposite the outer surface ; and an inner energy management layer formed of a second material and disposed within the outer energy management layer , the inner energy management layer further comprising an outer surface oriented towards the outer energy management layer and an inner surface opposite the outer surface , characterized in that the inner surface of the outer energy management layer comprises a first slidable finish being a first glaze formed of the first material and the outer surface of the inner energy management layer comprises a second slidable finish that directly contacts the first slidable finish , the second slidable finish being a second glaze formed of the second material. an outer energy management layer formed of a first material comprising an outer surface and an inner surface opposite the outer surface ; and an inner energy management layer formed of a second material and disposed within the outer energy management layer , the inner energy management layer further comprising an outer surface oriented towards the outer energy management layer and an inner surface opposite the outer surface , characterized in that the inner surface of the outer energy management layer comprises a first slidable finish being a first glaze formed of the first material and the outer surface of the inner energy management layer comprises a second slidable finish that directly contacts the first slidable finish , the second slidable finish being a second glaze formed of the second material.
A multimode transformable monument positionable between a floor and a ceiling of an aircraft cabin and proximate to a cabin space of the aircraft cabin, the monument comprising: a partition door pivotably deployable by a user relative to a first vertical axis of a hinge , between a closed position and an open position within the cabin space; and characterized in that the monument further comprises a self-deploying counter having a substantially horizontal top surface and an undersurface opposite the top surface, the counter configured to, as the partition door deploys, pivot relative to a second vertical axis of a tracking cam and track laterally relative to the partition door, the counter pivoting between a stowed position and a deployed position corresponding to the open position of the partition door, wherein the partition door is tracking forward relative to the monument when deployed in the open position. a partition door pivotably deployable by a user relative to a first vertical axis of a hinge , between a closed position and an open position within the cabin space; and characterized in that the monument further comprises a self-deploying counter having a substantially horizontal top surface and an undersurface opposite the top surface, the counter configured to, as the partition door deploys, pivot relative to a second vertical axis of a tracking cam and track laterally relative to the partition door, the counter pivoting between a stowed position and a deployed position corresponding to the open position of the partition door, wherein the partition door is tracking forward relative to the monument when deployed in the open position.
Textile item of clothing equipped with ballistic protection, having a torso part and arm parts, wherein the torso part is a knitted fabric and has at least one protected zone which is formed from a yarn that impedes the ingress of shrapnel, characterized in that the arm parts are formed from a woven material.
An image coding method comprising: performing context arithmetic coding (S711) to consecutively code (i) second information indicating whether or not to use, in the SAO processing for the first region, information on SAO processing for a region other than the first region, and after the second information is coded, code (ii) first information indicating whether or not to perform sample adaptive offset (SAO) processing for a first region of an image, the context arithmetic coding being arithmetic coding using a variable probability, the SAO processing being offset processing on a pixel value; and coding other information which is information on the SAO processing for the first region and different from the first information or the second information, after the first information and the second information are coded, wherein the other information includes third information indicating whether the SAO processing for the first region is edge offset processing performed according to an edge, or band offset processing performed according to the pixel value, the first information is corresponding to a value of an initial bit in a parameter of a type of the SAO processing for the first region, and the other information starts at a value of a next bit following the initial bit in the parameter of the type of the SAO processing for the first region, characterised in that the step of coding other information performs bypass arithmetic coding (S712) to code the other information, the bypass arithmetic coding being arithmetic coding using a fixed probability. performing context arithmetic coding (S711) to consecutively code (i) second information indicating whether or not to use, in the SAO processing for the first region, information on SAO processing for a region other than the first region, and after the second information is coded, code (ii) first information indicating whether or not to perform sample adaptive offset (SAO) processing for a first region of an image, the context arithmetic coding being arithmetic coding using a variable probability, the SAO processing being offset processing on a pixel value; and coding other information which is information on the SAO processing for the first region and different from the first information or the second information, after the first information and the second information are coded, wherein the other information includes third information indicating whether the SAO processing for the first region is edge offset processing performed according to an edge, or band offset processing performed according to the pixel value, the first information is corresponding to a value of an initial bit in a parameter of a type of the SAO processing for the first region, and the other information starts at a value of a next bit following the initial bit in the parameter of the type of the SAO processing for the first region, characterised in that the step of coding other information performs bypass arithmetic coding (S712) to code the other information, the bypass arithmetic coding being arithmetic coding using a fixed probability.