mhurhangee/ep-ind-claims huggingface dataset:
A haptic effect enabled flexible device (110, 200, 430) comprising: a flexible frame; a processor located within the flexible frame, the processor being configured to receive a data stream and to generate a drive command based on the data stream, wherein the data stream comprises visual content; a flexible display coupled to the flexible frame and configured to display the visual content; and an actuator system coupled to the flexible frame configured to receive the drive command generated by the processor, wherein upon receipt of the drive command from the processor the actuator system is configured to cause deformation of the flexible device (110, 200, 430) based on the drive command, the deformation including a plurality of bends at different locations in the flexible display based on the visual content. a flexible frame; a processor located within the flexible frame, the processor being configured to receive a data stream and to generate a drive command based on the data stream, wherein the data stream comprises visual content; a flexible display coupled to the flexible frame and configured to display the visual content; and an actuator system coupled to the flexible frame configured to receive the drive command generated by the processor, wherein upon receipt of the drive command from the processor the actuator system is configured to cause deformation of the flexible device (110, 200, 430) based on the drive command, the deformation including a plurality of bends at different locations in the flexible display based on the visual content.
A combination weigher which causes a plurality of feeders (12, 13)to feed objects to weighing hoppers corresponding to the feeders, respectively, and performs combination calculation based on weights of the objects inside of the weighing hoppers, to find a combination in which a total of the weights of the objects falls within an allowable range with respect to a target weight, the combination weigher comprising: actuator units for actuating the weighing hoppers; and a body having a side wall attached with the actuator units; wherein the body has an inverted truncated pyramid shape; wherein a mounting section of the actuator unit extends along the side wall; wherein in a plan view of the actuator unit, the side wall is provided with an opening through which a driving unit of the actuator unit can be inserted in the horizontal direction and a main surface of the mounting section of the actuator unit has a flange shape to be in contact with a portion around the opening of the side wall; and wherein in a side view of the actuator unit, an end portion of the mounting section of the actuator unit is inclined in parallel with the direction in which a cross-section of the side wall of the body extends and a front portion of the actuator unit is connected to the mounting section of the actuator unit and extends vertically downward from a connecting section at which the front portion of the actuator unit is connected to the mounting section of the actuator unit outside of the body such that an acute angle is formed between the front portion of the actuator unit and the mounting section of the actuator unit. actuator units for actuating the weighing hoppers; and a body having a side wall attached with the actuator units; wherein the body has an inverted truncated pyramid shape; wherein a mounting section of the actuator unit extends along the side wall; wherein in a plan view of the actuator unit, the side wall is provided with an opening through which a driving unit of the actuator unit can be inserted in the horizontal direction and a main surface of the mounting section of the actuator unit has a flange shape to be in contact with a portion around the opening of the side wall; and wherein in a side view of the actuator unit, an end portion of the mounting section of the actuator unit is inclined in parallel with the direction in which a cross-section of the side wall of the body extends and a front portion of the actuator unit is connected to the mounting section of the actuator unit and extends vertically downward from a connecting section at which the front portion of the actuator unit is connected to the mounting section of the actuator unit outside of the body such that an acute angle is formed between the front portion of the actuator unit and the mounting section of the actuator unit.
A method for data reception, performed by a receiver device, characterized by comprising the following steps: receiving a target Radio Link Control, RLC, Protocol Data Unit, PDU, from a sender device, the target RLC PDU comprising a header and a data domain, the header comprising only a fixed portion, and a length of the fixed portion being an integral multiple of 8 bits; when the fixed portion does not comprise a Sequence Number, SN, field, determining that the data domain of the target RLC PDU comprises only a complete RLC Service Data Unit, SDU, directly re-assembling the target RLC PDU into the complete RLC SDU, and delivering the RLC SDU to a higher layer; when the fixed portion comprises the SN field, determining that the data domain of the target RLC PDU comprises a cut segment of the complete RLC SDU, assembling the complete RLC SDU according to a value of the SN field, re-assembling, into the complete RLC SDU, the target RLC PDU with a previously received RLC PDU in which a previous SN field comprises the same value as the value of the SN field, and delivering the RLC SDU to the higher layer, wherein a length of the SN field in the target RLC PDU is independent of a transmission requirement for data carried in the cut segment of the complete RLC SDU. receiving a target Radio Link Control, RLC, Protocol Data Unit, PDU, from a sender device, the target RLC PDU comprising a header and a data domain, the header comprising only a fixed portion, and a length of the fixed portion being an integral multiple of 8 bits; when the fixed portion does not comprise a Sequence Number, SN, field, determining that the data domain of the target RLC PDU comprises only a complete RLC Service Data Unit, SDU, directly re-assembling the target RLC PDU into the complete RLC SDU, and delivering the RLC SDU to a higher layer; when the fixed portion comprises the SN field, determining that the data domain of the target RLC PDU comprises a cut segment of the complete RLC SDU, assembling the complete RLC SDU according to a value of the SN field, re-assembling, into the complete RLC SDU, the target RLC PDU with a previously received RLC PDU in which a previous SN field comprises the same value as the value of the SN field, and delivering the RLC SDU to the higher layer, wherein a length of the SN field in the target RLC PDU is independent of a transmission requirement for data carried in the cut segment of the complete RLC SDU.
A method of determining a unique identifier of a security element, the method comprising: optically reading the security element, the security element comprising a number of emitters that are each capable of exhibiting a different emission response to excitation of the number of emitters, wherein the number of emitters comprise one or more continuous or discrete components exhibiting quantum mechanical confinement, the or each component being capable of emitting electromagnetic radiation linked to that quantum mechanical confinement, in response to the excitation; wherein the reading is performed across the security element, the reading comprising determining data indicative of an optical property of the security element using first emission electromagnetic radiation, emitted in response to first excitation electromagnetic radiation of a first intensity directed at the number of emitters, and determining data indicative of an optical property of the security element using second emission electromagnetic radiation, emitted in response to second, different, excitation electromagnetic radiation of a second, different, intensity directed at the number of the same emitters; an excitation-emission intensity relationship map being established using the data, for each of the first and second excitation intensities, and combined to form an overall excitation-emission intensity relationship map, and the unique identifier being determined from the map. optically reading the security element, the security element comprising a number of emitters that are each capable of exhibiting a different emission response to excitation of the number of emitters, wherein the number of emitters comprise one or more continuous or discrete components exhibiting quantum mechanical confinement, the or each component being capable of emitting electromagnetic radiation linked to that quantum mechanical confinement, in response to the excitation; wherein the reading is performed across the security element, the reading comprising determining data indicative of an optical property of the security element using first emission electromagnetic radiation, emitted in response to first excitation electromagnetic radiation of a first intensity directed at the number of emitters, and determining data indicative of an optical property of the security element using second emission electromagnetic radiation, emitted in response to second, different, excitation electromagnetic radiation of a second, different, intensity directed at the number of the same emitters; an excitation-emission intensity relationship map being established using the data, for each of the first and second excitation intensities, and combined to form an overall excitation-emission intensity relationship map, and the unique identifier being determined from the map.
Method of estimation of rotor operational characteristics including rotor speed, rotor azimuth and rotation direction, of a rotating rotor of a wind turbine, the method comprising: measuring pulse rising edge time and pulse falling edge time of pulses generated by each of multiple proximity sensors (SA1, SR1, SR2) originating from each of multiple detection targets (TA, TR1, TR2) arranged on the rotor; estimating values of parameters (ρ1, ρ 2, ε12) of the positioning and detection range of at least one sensor of said multiple proximity sensors (SA1, SR1, SR2) based on the measured pulse rising edge times and pulse falling edge times; estimating rotor operational characteristics, including a rotor speed and a rotor azimuth and a rotation direction, based on the measured pulse rising edge times and pulse falling edge times and the estimated values of said parameters (ρ1, ρ 2, ε12) of the at least one sensor of said mutliple proximity sensors. measuring pulse rising edge time and pulse falling edge time of pulses generated by each of multiple proximity sensors (SA1, SR1, SR2) originating from each of multiple detection targets (TA, TR1, TR2) arranged on the rotor; estimating values of parameters (ρ1, ρ 2, ε12) of the positioning and detection range of at least one sensor of said multiple proximity sensors (SA1, SR1, SR2) based on the measured pulse rising edge times and pulse falling edge times; estimating rotor operational characteristics, including a rotor speed and a rotor azimuth and a rotation direction, based on the measured pulse rising edge times and pulse falling edge times and the estimated values of said parameters (ρ1, ρ 2, ε12) of the at least one sensor of said mutliple proximity sensors.
A method of activating a downhole tool in a subterranean well, the method comprising: displacing a device in the downhole tool, the device transmitting energy to a receiver of the downhole tool, thereby activating the downhole tool; characterised in that transmitting includes a control circuitry of the device increasing electrical current flow between an electrical power source of the device and a transmitter of the device in response to a sensor of the device detecting a predetermined stimulus downhole, wherein the sensor includes a magnetic field sensor and wherein the predetermined stimulus includes a magnetic field produced by an indicator mounted in a plug that includes a pressure barrier having a lower magnetic permeability than a housing of the downhole tool into which the plug is secured. displacing a device in the downhole tool, the device transmitting energy to a receiver of the downhole tool, thereby activating the downhole tool; characterised in that transmitting includes a control circuitry of the device increasing electrical current flow between an electrical power source of the device and a transmitter of the device in response to a sensor of the device detecting a predetermined stimulus downhole, wherein the sensor includes a magnetic field sensor and wherein the predetermined stimulus includes a magnetic field produced by an indicator mounted in a plug that includes a pressure barrier having a lower magnetic permeability than a housing of the downhole tool into which the plug is secured.
An air conditioning system comprising: an air conditioner including an indoor unit; a detector configured to detect a user action toward the indoor unit; characterized in further comprising a transmitter configured to transmit first information on the indoor unit to a terminal of the user; and a control unit configured to cause the transmitter to transmit the first information to the terminal when the detector detects the user action, wherein the detector includes a camera, and an image recognizer configured to recognize the user action in an image captured by the camera. an air conditioner including an indoor unit; a detector configured to detect a user action toward the indoor unit; characterized in further comprising a transmitter configured to transmit first information on the indoor unit to a terminal of the user; and a control unit configured to cause the transmitter to transmit the first information to the terminal when the detector detects the user action, wherein the detector includes a camera, and an image recognizer configured to recognize the user action in an image captured by the camera.
A method for producing a sweetener comprising the steps of: A) providing a Stevia sweetener powder; B) reducing the particle size of the Stevia sweetener powder; C) treating the Stevia sweetener powder under reduced pressure of between 0-0,01 MPa (0-100 mbar), an elevated temperature of between 90-130°C for 1-24 hours; D) cooling down the treated Stevia sweetener powder; E) holding the cooled Stevia sweetener powder under nitrogen at a temperature of between 10-50°C to obtain a high solubility Stevia sweetener powder with increased solubility of at least 30g per 100g of water as determined in reverse osmosis water at room temperature of between 10-50°C; and F) introducing the high solubility Stevia sweetener powder to a roll compaction apparatus operating at between 5 rpm and 20 rpm and at a roll pressure of between 1 MPa (10 bar) to 6 MPa (60 bar) to produce a compacted material; introducing the compacted material to a size reducing apparatus to obtain a granule mixture; and fractioning the granule mixture through sieves of various sizes to obtain a granulated Stevia sweetener having a dissolution rate greater than a dissolution rate of the high solubility Stevia powder. A) providing a Stevia sweetener powder; B) reducing the particle size of the Stevia sweetener powder; C) treating the Stevia sweetener powder under reduced pressure of between 0-0,01 MPa (0-100 mbar), an elevated temperature of between 90-130°C for 1-24 hours; D) cooling down the treated Stevia sweetener powder; E) holding the cooled Stevia sweetener powder under nitrogen at a temperature of between 10-50°C to obtain a high solubility Stevia sweetener powder with increased solubility of at least 30g per 100g of water as determined in reverse osmosis water at room temperature of between 10-50°C; and F) introducing the high solubility Stevia sweetener powder to a roll compaction apparatus operating at between 5 rpm and 20 rpm and at a roll pressure of between 1 MPa (10 bar) to 6 MPa (60 bar) to produce a compacted material; introducing the compacted material to a size reducing apparatus to obtain a granule mixture; and fractioning the granule mixture through sieves of various sizes to obtain a granulated Stevia sweetener having a dissolution rate greater than a dissolution rate of the high solubility Stevia powder.
A composition for producing a shaped refractory ceramic product comprising: 1.1 85 to 99% by mass Y 2 O 3; und 1.2 1 to 15% by mass ZrSiO 4; relative to the total mass of the composition in each case. 1.1 85 to 99% by mass Y 2 O 3; und 1.2 1 to 15% by mass ZrSiO 4;
A walk-behind power tool comprising a handle assembly, a working member, and a prime mover configured to drive the working member, the handle assembly comprising a folding arrangement, characterized in that the folding arrangement comprises a hinge, having a first hinge part arranged for receiving an end of a first elongate member, and a second hinge part arranged for receiving an end of a second elongate member, the first and second hinge parts being pivotally interconnected about a hinge axis, so as to enable pivoting of the hinge between a folded position and a closed position, wherein the first hinge part has a first opening arranged for passing through a cable harness arriving from a channel or groove provided in the first elongate member, and in that the second hinge part has a second opening arranged for receiving the cable harness arriving from the first opening, and in that the first and second openings (212, 216) are facing each other when the hinge is in the closed position, and in that at least one of the first and second hinge parts has a protruding portion, arranged for directing the cable harness towards the first and second openings upon pivoting the hinge from the folded position to the closed position.
A lockout valve assembly of an implantable penile prosthetic, the lockout valve assembly comprising: a body adapted to be attachable between a reservoir and a pump of the implantable penile prosthetic; and a lockout valve adapted to be positioned in an inlet flow path between the reservoir and the pump and characterized by including: a core retained in rotational engagement within a seat formed inside the body, an inlet flange connected to and extending radially away from the core, and a lockout flange connected to and extending radially away from the core, an inflation channel (140, 340) formed through a portion of the core, a deflation pathway separate from the inflation channel (140, 340) and formed through a diameter of the core, and a one-way check valve disposed in the deflation pathway of the core, wherein the lockout valve is configured such that contact between a pump face of the lockout flange and a wall of the body prevents pressurized liquid from flowing from the reservoir to the pump, and such that a rotation of the core in response to suction in the downstream inlet flow path created by the pump aligns the inflation channel with the first portion and the second portion of the inlet flow path to allow liquid to flow from the reservoir to the pump. a body adapted to be attachable between a reservoir and a pump of the implantable penile prosthetic; and a lockout valve adapted to be positioned in an inlet flow path between the reservoir and the pump and characterized by including: a core retained in rotational engagement within a seat formed inside the body, an inlet flange connected to and extending radially away from the core, and a lockout flange connected to and extending radially away from the core, an inflation channel (140, 340) formed through a portion of the core, a deflation pathway separate from the inflation channel (140, 340) and formed through a diameter of the core, and a one-way check valve disposed in the deflation pathway of the core, a core retained in rotational engagement within a seat formed inside the body, an inlet flange connected to and extending radially away from the core, and a lockout flange connected to and extending radially away from the core, an inflation channel (140, 340) formed through a portion of the core, a deflation pathway separate from the inflation channel (140, 340) and formed through a diameter of the core, and a one-way check valve disposed in the deflation pathway of the core, wherein the lockout valve is configured such that contact between a pump face of the lockout flange and a wall of the body prevents pressurized liquid from flowing from the reservoir to the pump, and such that a rotation of the core in response to suction in the downstream inlet flow path created by the pump aligns the inflation channel with the first portion and the second portion of the inlet flow path to allow liquid to flow from the reservoir to the pump.
A nozzle cap assembly comprising: a nozzle cap housing configured to mount on a hydrant; a nozzle cap cover mounted on the nozzle cap housing; an antenna cover positioned on the nozzle cap housing and secured between the nozzle cap housing and the nozzle cap cover, the nozzle cap housing, the antenna cover, and the nozzle cap cover defining an antenna cover cavity; and an antenna assembly positioned in the antenna cover cavity. a nozzle cap housing configured to mount on a hydrant; a nozzle cap cover mounted on the nozzle cap housing; an antenna cover positioned on the nozzle cap housing and secured between the nozzle cap housing and the nozzle cap cover, the nozzle cap housing, the antenna cover, and the nozzle cap cover defining an antenna cover cavity; and an antenna assembly positioned in the antenna cover cavity.