mhurhangee/ep-ind-claims huggingface dataset:
An emergency slide system comprising: a slide including a telescoping structural support, and a slide surface; and a gas deployment device configured to deploy said slide, wherein said telescoping structural support comprises a first rail and a second rail in bordering engagement with said slide surface, said first rail comprising a first set of telescoping segments, and said second rail comprising a second set of telescoping segments; characterised in that: said first set of telescoping segments have a closed bottom end and an open top end, wherein deployment of said first set of telescoping segments is effectuated by forcing gas through said open end, and said gas deployment device is configured to force gas through said open end. a slide including a telescoping structural support, and a slide surface; and a gas deployment device configured to deploy said slide, wherein said telescoping structural support comprises a first rail and a second rail in bordering engagement with said slide surface, said first rail comprising a first set of telescoping segments, and said second rail comprising a second set of telescoping segments; characterised in that: said first set of telescoping segments have a closed bottom end and an open top end, wherein deployment of said first set of telescoping segments is effectuated by forcing gas through said open end, and said gas deployment device is configured to force gas through said open end.
A construction machine comprising a machine-body frame, a supporting plate installed on the machine-body frame, and batteries fixed to a topside of the supporting plate, wherein a shelf having a plurality of shelf plates arranged at intervals in an up-down direction is installed on a rear end portion of the machine-body frame, characterized in that a plurality of supporting plates is provided and installed on respective topsides of the plurality of shelf plates via elastic mounts, wherein each of the supporting plates is free of welds.
A method of controlling an internal combustion engine having a cylinder accommodating a piston which reciprocates therein, and defining a combustion chamber, an air intake passage through which air is inducted into said cylinder, and an intake valve capable of shutting off air flowing into said cylinder from said air intake passage, wherein said internal combustion engine has a geometric compression ratio of 13:1 or greater, the method comprising: closing said intake valve later during a cylinder cycle than a timing with which an amount of air inducted into said cylinder from said air intake passage would be maximized and advancing a closing timing of the intake valve during the cylinder cycle as the desired amount of air (CE D) to be inducted into said cylinder increases, while an engine speed (N ENG) of the engine is at a given engine speed, when a desired amount (CE D) of air to be inducted into said cylinder is higher than a predefined air amount (CE D_base) and less than a maximum; closing said intake valve later during a cylinder cycle as the engine speed (N ENG) increases when the engine speed (N ENG) is greater than a first predetermined speed (N2, N5, N12) and the desired amount (CE D) of air to be inducted into said cylinder is substantially at the maximum; and increasing an air charge amount in said cylinder by closing said intake valve earlier during a cylinder cycle as the engine speed increases when the engine speed (N ENG) is substantially said first predetermined speed (N2, N5, N12) or less and said desired amount (CE D) of air to be inducted into said cylinder is substantially at the maximum. closing said intake valve later during a cylinder cycle than a timing with which an amount of air inducted into said cylinder from said air intake passage would be maximized and advancing a closing timing of the intake valve during the cylinder cycle as the desired amount of air (CE D) to be inducted into said cylinder increases, while an engine speed (N ENG) of the engine is at a given engine speed, when a desired amount (CE D) of air to be inducted into said cylinder is higher than a predefined air amount (CE D_base) and less than a maximum; closing said intake valve later during a cylinder cycle as the engine speed (N ENG) increases when the engine speed (N ENG) is greater than a first predetermined speed (N2, N5, N12) and the desired amount (CE D) of air to be inducted into said cylinder is substantially at the maximum; and increasing an air charge amount in said cylinder by closing said intake valve earlier during a cylinder cycle as the engine speed increases when the engine speed (N ENG) is substantially said first predetermined speed (N2, N5, N12) or less and said desired amount (CE D) of air to be inducted into said cylinder is substantially at the maximum.
An electrical power transmitter, comprising: a primary inductor (Lprimary); a drive transistor (Q1-Q4) coupled to the primary inductor, the transistor having a gate; and a rising edge control circuit including a voltage controlled oscillator, VCO, having a power carrier frequency input, configured to generate m stage outputs, and configured to generate a clock signal output at a frequency n times greater than the power carrier frequency; a rising edge multiplexer having m sub-portion inputs coupled to the m stage outputs, a select input, and a rising edge multiplexer output; a rising edge divider circuit having an input coupled to the clock signal output and having n rising edge portion outputs; and rising edge logic circuitry having inputs coupled to the rising edge multiplexer output and the n rising edge portion outputs, and having a rising edge control output coupled to the drive transistor gate. a primary inductor (Lprimary); a drive transistor (Q1-Q4) coupled to the primary inductor, the transistor having a gate; and a rising edge control circuit including a voltage controlled oscillator, VCO, having a power carrier frequency input, configured to generate m stage outputs, and configured to generate a clock signal output at a frequency n times greater than the power carrier frequency; a rising edge multiplexer having m sub-portion inputs coupled to the m stage outputs, a select input, and a rising edge multiplexer output; a rising edge divider circuit having an input coupled to the clock signal output and having n rising edge portion outputs; and rising edge logic circuitry having inputs coupled to the rising edge multiplexer output and the n rising edge portion outputs, and having a rising edge control output coupled to the drive transistor gate.
A frequency synthesizer, comprising: a table adapted to store a plurality of oscillator tuning words OTW; an all digital phase locked loop ADPLL, comprising: a digitally controlled oscillator DCO coupled to said table, said DCO operative to generate an output signal whose frequency is determined in accordance with said OTW; a feedback circuit coupled to the output of said DCO, said feedback circuit operative to calibrate the frequency output of said DCO; and calibration means coupled to said table and said feedback circuit, said calibration means operative to configure open and closed modes of operation of said frequency synthesizer. a table adapted to store a plurality of oscillator tuning words OTW; an all digital phase locked loop ADPLL, comprising: a digitally controlled oscillator DCO coupled to said table, said DCO operative to generate an output signal whose frequency is determined in accordance with said OTW; a feedback circuit coupled to the output of said DCO, said feedback circuit operative to calibrate the frequency output of said DCO; and calibration means coupled to said table and said feedback circuit, said calibration means operative to configure open and closed modes of operation of said frequency synthesizer. a digitally controlled oscillator DCO coupled to said table, said DCO operative to generate an output signal whose frequency is determined in accordance with said OTW; a feedback circuit coupled to the output of said DCO, said feedback circuit operative to calibrate the frequency output of said DCO; and calibration means coupled to said table and said feedback circuit, said calibration means operative to configure open and closed modes of operation of said frequency synthesizer.
An illumination controller (4, 4a, 4b), for controlling a light source unit having a plurality of light sources (2R, 2G, 2B, 2a, 2b, 2c) configured to emit different colored lights, comprising: a dial (6, 6a, 6b, 6c), which is rotatable, configured to adjust a color temperature and a quantity of light irradiated from the light source unit, a memory which is configured to store one or more control curves in which the color temperature and the quantity of light irradiated from the light source unit are configured to change in conjunction with each other; and a curve selection unit configured to select one curve among the one or more control curves stored in the memory, wherein when the dial (6, 6a, 6b, 6c) is rotated, the color temperature and the quantity of light irradiated from the light source unit are configured to change according to values defined on the control curve selected by the curve selection unit, and characterized in that the one or more control curves include a bedtime mode curve in which the quantity of light rises as the color temperature of light increases in a low color temperature range, while the color temperature of light is prevented from becoming a high color temperature, wherein the low color temperature range is defined by color temperatures which are lower than 3000 K, and wherein the high color temperature is a color temperature which is at least 3000 K. a dial (6, 6a, 6b, 6c), which is rotatable, configured to adjust a color temperature and a quantity of light irradiated from the light source unit, a memory which is configured to store one or more control curves in which the color temperature and the quantity of light irradiated from the light source unit are configured to change in conjunction with each other; and a curve selection unit configured to select one curve among the one or more control curves stored in the memory, wherein when the dial (6, 6a, 6b, 6c) is rotated, the color temperature and the quantity of light irradiated from the light source unit are configured to change according to values defined on the control curve selected by the curve selection unit, and characterized in that the one or more control curves include a bedtime mode curve in which the quantity of light rises as the color temperature of light increases in a low color temperature range, while the color temperature of light is prevented from becoming a high color temperature, wherein the low color temperature range is defined by color temperatures which are lower than 3000 K, and wherein the high color temperature is a color temperature which is at least 3000 K.
A system for adapting packets received from a digital packet network to a digital radio network whose transmission channel enables transmission of audio and data services and selective reception of these services and on whose transmitting end: - a Data Group includes a data field and a header intended for a service component, the header containing an Address Field intended for the end-user's address, - the service component is transmitted on the transmission path in digital radio network packets whose header includes an address field (PKT Address) identifying the service component and whose data in the data field has been obtained by dividing the Data Group into segments and by transferring each segment into the data field of one corresponding digital radio network packet, wherein the system comprises: - a receiving unit (63, 64, 65) for receiving and temporarily storing desired packets, - an address and protocol converter which converts the address of each temporarily stored packet, inserts at least a part of the address converted to the address field of the Data Group to be formed, and inserts the data of the packet as such to the Data Group data field and inserts at least a part of the address converted to the address field of the digital radio network packets to be formed, - a storing device which stores the digital radio network packets formed and from which the packets can further be applied to the digital radio network system transmitter. - a Data Group includes a data field and a header intended for a service component, the header containing an Address Field intended for the end-user's address, - the service component is transmitted on the transmission path in digital radio network packets whose header includes an address field (PKT Address) identifying the service component and whose data in the data field has been obtained by dividing the Data Group into segments and by transferring each segment into the data field of one corresponding digital radio network packet, - a receiving unit (63, 64, 65) for receiving and temporarily storing desired packets, - an address and protocol converter which converts the address of each temporarily stored packet, inserts at least a part of the address converted to the address field of the Data Group to be formed, and inserts the data of the packet as such to the Data Group data field and inserts at least a part of the address converted to the address field of the digital radio network packets to be formed, - a storing device which stores the digital radio network packets formed and from which the packets can further be applied to the digital radio network system transmitter.
RF connector assembly comprising at least - a housing, - a RF connector held by the housing, - a transmission line comprising at least one outer conductor and an inner conductor, the transmission line being at least partially contained in the housing is connecting the RF connector held by the housing, characterized in, that the inner conductor is a band conductor having a rectangular cross-section and comprising conductive material, the inner conductor is held by a plurality of holding pins made of an insulating material at a predetermined position close to the center of the outer conductor, each holding pin being held by at least one hole (223, 224) in the outer conductor and further penetrating through a hole in the inner conductor. - a housing, - a RF connector held by the housing, - a transmission line comprising at least one outer conductor and an inner conductor, the transmission line being at least partially contained in the housing is connecting the RF connector held by the housing,
A glass manufacturing apparatus, comprising: a metallic vessel configured to convey molten glass; an enclosure disposed about the metallic vessel; an electrical flange attached to the metallic vessel, the electrical flange comprising an electrode portion extending away from the metallic vessel and through the enclosure; and an electrical flange support apparatus coupled to the electrode portion. a metallic vessel configured to convey molten glass; an enclosure disposed about the metallic vessel; an electrical flange attached to the metallic vessel, the electrical flange comprising an electrode portion extending away from the metallic vessel and through the enclosure; and an electrical flange support apparatus coupled to the electrode portion.
A method of calibrating a multi component force detector provided in a rolling resistance testing machine including a spindle shaft to which a tire is attached and to which the multi component force detector is attached, a running drum with a simulation road surface on which the tire is pressed, and a rotation torque meter provided in a rotation shaft of the running drum, wherein when a tangential direction of the running drum is set as an x axis, an axis direction of the spindle shaft is set as a y axis, and a direction of a load applied to the tire is set as a z axis, the multi component force detector is able to measure, among forces fx, fy, and fz acting in the respective axis directions and moments mx, my, and mz about the respective axes, at least two or more components including fx and fz, and wherein, in a process of calculating a force acting on the tire from a measurement value of the multi component force detector using a crosstalk correction coefficient (a, b) for correcting an influence of crosstalk occurring in the multi component force detector, the crosstalk correction coefficient (a, b) is calibrated by using at least two types of rolling test data being linearly independent from each other and including a rotation torque measured by the rotation torque meter and a force measured by the multi component force detector, wherein the at least two types of rolling test data are used in a calculation of variables (a, b) of the crosstalk correction coefficient (a, b) using a system of equations comprising an independent simultaneous equation. wherein when a tangential direction of the running drum is set as an x axis, an axis direction of the spindle shaft is set as a y axis, and a direction of a load applied to the tire is set as a z axis, the multi component force detector is able to measure, among forces fx, fy, and fz acting in the respective axis directions and moments mx, my, and mz about the respective axes, at least two or more components including fx and fz, and wherein, in a process of calculating a force acting on the tire from a measurement value of the multi component force detector using a crosstalk correction coefficient (a, b) for correcting an influence of crosstalk occurring in the multi component force detector, the crosstalk correction coefficient (a, b) is calibrated by using at least two types of rolling test data being linearly independent from each other and including a rotation torque measured by the rotation torque meter and a force measured by the multi component force detector, wherein the at least two types of rolling test data are used in a calculation of variables (a, b) of the crosstalk correction coefficient (a, b) using a system of equations comprising an independent simultaneous equation.
An application management system comprising an application manager module for controlling an application, the application manager module being associated with a database resource for storing a plurality of entities associated with the application, the application manager module including an input channel for receiving an input defining an event in which a user is involved in the application or an input defining an event involving a manipulation of at least one entity in the database resource, wherein a context is associated with the event and is represented in the event by a set of references to a plurality of the entities stored in the database resource, the application manager further including a situation representation manager module for determining a situation representation in terms of a subset of the references to the plurality of entities to define a subcontext defining a situation, wherein the situation representation manager module is arranged to identify the subset of the references to the plurality of entities which are relevant to the event, wherein the application manager module is arranged to adapt the behaviour of the application to the situation or a future situation on the basis of the situation representation, characterized in that the situation representation manager module includes an activation value assignor for assigning an activation value to the plurality of entities defined by at least one of the set or subset of references, and a determining means for determining the subset of entities to be included in the situation representation on the basis of the activation value, wherein the activation value for an entity is derived in accordance with a degree to which the entity is related to the situation, wherein the activation value assignor assigns a subcontext activation attribute to the entities (61, 62, 63') included in the subcontext, which is dependent on the iteration in which an entity has been included in the subcontext, and wherein the subcontext activation attribute for an entity included in the subcontext is calculated by taking into account the number of subset entities to which the entity included in the subcontext is directly related.
A radio frequency filter with a cavity structure, comprising: a housing having an inner hollow portion to have a cavity and open from one side of the housing; a cover sealing the open side of the housing; and a resonant element disposed inside the hollow housing, wherein a through hole is formed at a part of the cover, corresponding to the resonant element, and a tuning element is installed covering the through hole, for frequency tuning, characterized in that the tuning element is formed of a material having a different thermal expansion coefficient from a thermal expansion coefficient of a material of the cover, wherein a plurality of dot peens (a) are formed on a bottom surface of the tuning element using an external marking equipment. a housing having an inner hollow portion to have a cavity and open from one side of the housing; a cover sealing the open side of the housing; and a resonant element disposed inside the hollow housing, wherein a through hole is formed at a part of the cover, corresponding to the resonant element, and a tuning element is installed covering the through hole, for frequency tuning, characterized in that the tuning element is formed of a material having a different thermal expansion coefficient from a thermal expansion coefficient of a material of the cover, wherein a plurality of dot peens (a) are formed on a bottom surface of the tuning element using an external marking equipment.
A cryptographic system configured to perform a process using a predetermined basis B and a predetermined basis B *, the cryptographic system comprising: a transmission device (200, 500) configured to generate a transmission-side vector t j for at least one index j out of a plurality of indices j, the transmission-side vector t j being a vector in which information J assigned in advance to the index j is set as a coefficient of a predetermined basis vector b index of the basis B, and a parameter Φj for the index j is set as a coefficient of another basis vector b att of the basis B; and a reception device (300, 600) configured to use a reception-side vector r j' for at least one index j' out of a plurality of indices j', the reception-side vector r j' being a vector in which information J' having an inner-product of 0 with the information J assigned in advance to the index j corresponding to the index j' is set as a coefficient of a basis vector b * index of the basis B * corresponding to the basis vector b index, and a parameter Ψ j' for the index j' is set as a coefficient of a basis vector b * att of the basis B * corresponding to the basis vector b att, and compute a product of pairing operations on corresponding pairs of the basis vectors of the transmission-side vector t j for the index j and the reception-side vector r j' for the index j' corresponding to the index j. a transmission device (200, 500) configured to generate a transmission-side vector t j for at least one index j out of a plurality of indices j, the transmission-side vector t j being a vector in which information J assigned in advance to the index j is set as a coefficient of a predetermined basis vector b index of the basis B, and a parameter Φj for the index j is set as a coefficient of another basis vector b att of the basis B; and a reception device (300, 600) configured to use a reception-side vector r j' for at least one index j' out of a plurality of indices j', the reception-side vector r j' being a vector in which information J' having an inner-product of 0 with the information J assigned in advance to the index j corresponding to the index j' is set as a coefficient of a basis vector b * index of the basis B * corresponding to the basis vector b index, and a parameter Ψ j' for the index j' is set as a coefficient of a basis vector b * att of the basis B * corresponding to the basis vector b att, and compute a product of pairing operations on corresponding pairs of the basis vectors of the transmission-side vector t j for the index j and the reception-side vector r j' for the index j' corresponding to the index j.