mhurhangee/patent-ind-claim-en huggingface dataset:
Modular electronic dice system for determining the result of the roll of a die and transmitting said result to a remote electronic terminal ; said system comprising a single control board used to trace Q different types of dice , each of said dice being characterized by a variable number N q of faces, wherein Q and N q are natural numbers; said control board being equipped with an accelerometer or a gyroscope , a memory , a CPU and a wireless communication system ; said modular electronic dice system further comprising: • a core provided with a housing for housing said control board ; said core being insertable according to a single orientation in a suitable seat ; said seat being obtained in each of the Q different types of dice , according to a predetermined position and orientation; • a look-up-table preloaded into the memory of the control board ; said look-up-table containing the expected values of the gravity vector [Vx,Vy,Vz], provided by the accelerometer or gyroscope , said expected values being predetermined for each of the N q positions assumed by the Q different types of dice at the valid results of the roll of the dice; • means for detecting said gravity vector [Vx,Vy,Vz] provided by the accelerometer or gyroscope at the conclusion of the roll of a die; said means comprising controlling the asymptotic stability of the values assumed by the gravity vector [Vx(t),Vy(t),Vz(t)] in the time domain; • means for determining the result of the roll of a die; said means being employed to compare said gravity vector [Vx,Vy,Vz], provided by the accelerometer or gyroscope at the end of the die roll, with the expected values of said gravity vector contained in the look-up-table ; said comparison to determine the value of the roll result to be transmitted to the remote electronic terminal . • a core provided with a housing for housing said control board ; said core being insertable according to a single orientation in a suitable seat ; said seat being obtained in each of the Q different types of dice , according to a predetermined position and orientation; • a look-up-table preloaded into the memory of the control board ; said look-up-table containing the expected values of the gravity vector [Vx,Vy,Vz], provided by the accelerometer or gyroscope , said expected values being predetermined for each of the N q positions assumed by the Q different types of dice at the valid results of the roll of the dice; • means for detecting said gravity vector [Vx,Vy,Vz] provided by the accelerometer or gyroscope at the conclusion of the roll of a die; said means comprising controlling the asymptotic stability of the values assumed by the gravity vector [Vx(t),Vy(t),Vz(t)] in the time domain; • means for determining the result of the roll of a die; said means being employed to compare said gravity vector [Vx,Vy,Vz], provided by the accelerometer or gyroscope at the end of the die roll, with the expected values of said gravity vector contained in the look-up-table ; said comparison to determine the value of the roll result to be transmitted to the remote electronic terminal .
An apparatus for processing data, the apparatus comprising: an Application Processor, AP ; a Communication Processor, CP ; and a storage unit comprising a first region which the AP and the CP access and from or to which data related to at least one of the AP and the CP is read or written, and a second region which the CP accesses and from or to which data related to the CP is read or written; characterized in that the first region comprises an AP data region from or to which the data related to the AP is read or written, and a CP data region from or to which the data related to the CP is read or written, wherein the AP data region and the CP data region are controlled by the AP and the CP , respectively, wherein the CP is configured to generate an IP packet to the CP data region , wherein the AP is configured to read the generated IP packet from the CP data region , wherein the storage unit further comprises a fourth region where data information is stored, wherein the data information is associated with scatter information in case the IP packet is scattered in the storage unit , and wherein said data information is transferred between the CP and the AP through the fourth region . an Application Processor, AP ; a Communication Processor, CP ; and a storage unit comprising a first region which the AP and the CP access and from or to which data related to at least one of the AP and the CP is read or written, and a second region which the CP accesses and from or to which data related to the CP is read or written; characterized in that the first region comprises an AP data region from or to which the data related to the AP is read or written, and a CP data region from or to which the data related to the CP is read or written, wherein the AP data region and the CP data region are controlled by the AP and the CP , respectively, wherein the CP is configured to generate an IP packet to the CP data region , wherein the AP is configured to read the generated IP packet from the CP data region , wherein the storage unit further comprises a fourth region where data information is stored, wherein the data information is associated with scatter information in case the IP packet is scattered in the storage unit , and wherein said data information is transferred between the CP and the AP through the fourth region .
Bone replacement material having reinforcing elements and a modelable mass which is curable on contact with water or an aqueous liquid, characterized in that the reinforcing elements are in intermeshing form.
A kit for use with a recirculating cooling system, comprising: a bag including a first wall , a second wall opposite the first wall, and a side wall defining a reservoir configured to retain a fluid therein, a first port defined through the first wall and a second port , wherein the second port is defined through the side wall or the second wall, the bag being configured to maximize a temperature differential between a fluid proximate the first port and a fluid proximate the second port by maximising a distance (D) between the first and second ports; and wherein the bag is collapsible and further includes a divider disposed therein to divide the reservoir into a first fluid chamber and a second fluid chamber , the first chamber in fluid communication with the first port, and the second fluid chamber in fluid communication with the second port, wherein at least a portion of the divider is a permeable membrane or a semi-permeable membrane to permit the flow of a fluid therethrough. a bag including a first wall , a second wall opposite the first wall, and a side wall defining a reservoir configured to retain a fluid therein, a first port defined through the first wall and a second port , wherein the second port is defined through the side wall or the second wall, the bag being configured to maximize a temperature differential between a fluid proximate the first port and a fluid proximate the second port by maximising a distance (D) between the first and second ports; and wherein the bag is collapsible and further includes a divider disposed therein to divide the reservoir into a first fluid chamber and a second fluid chamber , the first chamber in fluid communication with the first port, and the second fluid chamber in fluid communication with the second port, wherein at least a portion of the divider is a permeable membrane or a semi-permeable membrane to permit the flow of a fluid therethrough.
A power module comprising: - a multilayered printed circuit board with a top side mounted with one or more semiconductor components and one or more magnetic components ; and a bottom side for connection parts, wherein the connection parts are solder bumps , the board having one or more holes where one or more magnetic components are placed; - a host board having one or more holes where the one or more magnetic components are placed; - a cover or baseplate ; - a heat sink ; wherein the solder bumps of the multilayered printed circuit board are soldered to equivalent solder pads on the host board , wherein the one or more semiconductor components connect to the solder bumps of the multilayered printed circuit board through a plurality of thermal vias , and wherein the one or more magnetic components are mounted on the multilayered printed circuit board such that one side of a magnetic component contacts with the cover or base plate through a thermal interface material and another side contacts the heat sink through a thermal interface material . - a multilayered printed circuit board with a top side mounted with one or more semiconductor components and one or more magnetic components ; and a bottom side for connection parts, wherein the connection parts are solder bumps , the board having one or more holes where one or more magnetic components are placed; - a host board having one or more holes where the one or more magnetic components are placed; - a cover or baseplate ; - a heat sink ; wherein the solder bumps of the multilayered printed circuit board are soldered to equivalent solder pads on the host board , wherein the one or more semiconductor components connect to the solder bumps of the multilayered printed circuit board through a plurality of thermal vias , and wherein the one or more magnetic components are mounted on the multilayered printed circuit board such that one side of a magnetic component contacts with the cover or base plate through a thermal interface material and another side contacts the heat sink through a thermal interface material .
A measuring method for the determination of the winding temperature (Tw) of a motor winding of an electric motor comprising a motor controller, having the following steps: a. exciting the motor winding by means of an oscillation excitation to set it into resonance oscillation, wherein, to excite the motor winding , a PWM voltage generated by the motor controller is applied thereto; b. detecting the resonance frequency (f R ) of the motor winding resulting in this case,and c. determining the winding temperature (Tw) from the detected resonance frequency (f R ), wherein, to determine the winding temperature, the motor winding is viewed as an LCR oscillating circuit having an inductance (L), a capacitance (C), and a winding resistance (R) and the step response of the excited oscillating circuit is analyzed for the determination of the winding temperature (Tw). a. exciting the motor winding by means of an oscillation excitation to set it into resonance oscillation, wherein, to excite the motor winding , a PWM voltage generated by the motor controller is applied thereto; b. detecting the resonance frequency (f R ) of the motor winding resulting in this case,and c. determining the winding temperature (Tw) from the detected resonance frequency (f R ), wherein, to determine the winding temperature, the motor winding is viewed as an LCR oscillating circuit having an inductance (L), a capacitance (C), and a winding resistance (R) and the step response of the excited oscillating circuit is analyzed for the determination of the winding temperature (Tw).
A dry sheet for cleaning comprising multiple layers (2; 3), comprising: fiber layers each arranged in a front surface layer and a back surface layer; a spun bond nonwoven fabric layer provided in an intermediate layer between the fiber layers; and an interlaced part in which the fiber layers are interlaced with the nonwoven fabric layer, wherein the interlaced part is provided in the front surface layer and the back surface layer and includes slightly interlaced parts and highly interlaced parts , each of the highly interlaced parts being formed in a dent shape and being interlaced so as to have a higher fiber density than each of the slightly interlaced parts , wherein the highly interlaced parts in the front surface layer are formed corresponding to and at almost same spots as the highly interlaced parts in the back surface layer, characterized in that the front surface layer and the back surface layer each include polyethylene terephthalate fiber at a rate of 80% or more, wherein a fiber diameter of the polyethylene terephthalate fiber is 3.3 dtex or more, wherein the highly interlaced parts are formed in an area ratio of 20 to 90% with respect to an area of the front surface layer and the back surface layer in a plan view, and wherein the highly interlaced parts and the slightly interlaced parts each extend in a direction (MD) perpendicular to a wiping direction (CD) of the dry sheet for cleaning and are formed alternately and successively in the wiping direction (CD). fiber layers each arranged in a front surface layer and a back surface layer; a spun bond nonwoven fabric layer provided in an intermediate layer between the fiber layers; and an interlaced part in which the fiber layers are interlaced with the nonwoven fabric layer, wherein the interlaced part is provided in the front surface layer and the back surface layer and includes slightly interlaced parts and highly interlaced parts , each of the highly interlaced parts being formed in a dent shape and being interlaced so as to have a higher fiber density than each of the slightly interlaced parts , wherein the highly interlaced parts in the front surface layer are formed corresponding to and at almost same spots as the highly interlaced parts in the back surface layer, characterized in that the front surface layer and the back surface layer each include polyethylene terephthalate fiber at a rate of 80% or more, wherein a fiber diameter of the polyethylene terephthalate fiber is 3.3 dtex or more, wherein the highly interlaced parts are formed in an area ratio of 20 to 90% with respect to an area of the front surface layer and the back surface layer in a plan view, and wherein the highly interlaced parts and the slightly interlaced parts each extend in a direction (MD) perpendicular to a wiping direction (CD) of the dry sheet for cleaning and are formed alternately and successively in the wiping direction (CD).
A sensor for detecting temperature of an aircraft , the sensor comprising: a temperature sensor elongated with respect to an axis comprising: a sheath elongated with respect to the axis ; a central conductor disposed within the sheath and elongated with respect to the axis having a conductor material defining a conductor temperature coefficient having a conductor temperature coefficient magnitude; a thermistor disposed within the sheath and surrounding the central conductor , the thermistor having thermistor material defining a thermistor temperature coefficient defining a thermistor temperature coefficient magnitude, characterised in that the thermistor temperature coefficient magnitude is greater than the conductor temperature coefficient magnitude, and that an optical fiber is disposed within the sheath. a temperature sensor elongated with respect to an axis comprising: a sheath elongated with respect to the axis ; a central conductor disposed within the sheath and elongated with respect to the axis having a conductor material defining a conductor temperature coefficient having a conductor temperature coefficient magnitude; a thermistor disposed within the sheath and surrounding the central conductor , the thermistor having thermistor material a sheath elongated with respect to the axis ; a central conductor disposed within the sheath and elongated with respect to the axis having a conductor material defining a conductor temperature coefficient having a conductor temperature coefficient magnitude; a thermistor disposed within the sheath and surrounding the central conductor , the thermistor having thermistor material defining a thermistor temperature coefficient defining a thermistor temperature coefficient magnitude, characterised in that the thermistor temperature coefficient magnitude is greater than the conductor temperature coefficient magnitude, and that an optical fiber is disposed within the sheath.
A method for transmitting a frame in a wireless LAN system performed by a wireless device, the method comprising: for a transmission of a first frame related to an access category, AC, comparing a first time parameter related to an admitted time previously admitted by an access point, AP, for the wireless device for said AC, with a second time parameter related to a used time previously used by the wireless device for transmitting frames of said AC (S1630); based on a first comparison result between the first time parameter and the second time parameter, determining whether or not to transmit the first frame to the AP through an Enhanced Distributed Channel Access, EDCA (S1630); updating the second time parameter by adding a first required time used for transmitting the first frame to the second time parameter (S1640); receiving a trigger frame for a multi-user uplink, MU UL, transmission from the AP (S1610); based on the trigger frame, performing data processing for a second frame; and transmitting the second frame regardless of a second comparison result between the first time parameter and the updated second time parameter, wherein a second required time used for transmitting the second frame is not added to the updated second time parameter, and wherein the updated second time parameter is maintained after the transmission of the second frame (S1620). for a transmission of a first frame related to an access category, AC, comparing a first time parameter related to an admitted time previously admitted by an access point, AP, for the wireless device for said AC, with a second time parameter related to a used time previously used by the wireless device for transmitting frames of said AC (S1630); based on a first comparison result between the first time parameter and the second time parameter, determining whether or not to transmit the first frame to the AP through an Enhanced Distributed Channel Access, EDCA (S1630); updating the second time parameter by adding a first required time used for transmitting the first frame to the second time parameter (S1640); receiving a trigger frame for a multi-user uplink, MU UL, transmission from the AP (S1610); based on the trigger frame, performing data processing for a second frame; and transmitting the second frame regardless of a second comparison result between the first time parameter and the updated second time parameter, wherein a second required time used for transmitting the second frame is not added to the updated second time parameter, and wherein the updated second time parameter is maintained after the transmission of the second frame (S1620).
Method for fastening a roller shutter guide rail relative to a roller shutter box and a window or door frame , wherein the roller shutter guide rail is locked to a support fixed to the building for a first mounting which can be displaced in the direction of a longitudinal extension (L) of the roller shutter guide rail in order to accommodate a change in length, preferably a window frame , characterised in that the roller shutter guide rail is additionally connected in a reversible manner to the roller shutter box or the window frame in a form-locking manner in order to prevent a displacement of the roller shutter running rail in the direction of the longitudinal extension (L).
A quantum random number generator, comprising a laser generation module, a first beam splitter, a detector, and a processing module, wherein the laser generation module is configured to emit a first laser beam to a first input end of the first beam splitter, emit a second laser beam to a second input end of the first beam splitter, and adjust power of one or more laser beams of the first laser beam and the second laser beam, wherein the first laser beam and the second laser beam satisfy one or more of the following conditions: an absolute value of a frequency difference is beyond a response frequency range of the detector and polarization directions are orthogonal; the first beam splitter is configured to couple the received first laser beam and the received second laser beam to obtain two laser beams, and output the two laser beams to the detector; the detector is configured to generate one electronic signal based on each received laser beam, detect a difference between two electronic signals, and output a detection result to the processing module; and the processing module is configured to generate a random number based on the detection result. the laser generation module is configured to emit a first laser beam to a first input end of the first beam splitter, emit a second laser beam to a second input end of the first beam splitter, and adjust power of one or more laser beams of the first laser beam and the second laser beam, wherein the first laser beam and the second laser beam satisfy one or more of the following conditions: an absolute value of a frequency difference is beyond a response frequency range of the detector and polarization directions are orthogonal; the first beam splitter is configured to couple the received first laser beam and the received second laser beam to obtain two laser beams, and output the two laser beams to the detector; the detector is configured to generate one electronic signal based on each received laser beam, detect a difference between two electronic signals, and output a detection result to the processing module; and the processing module is configured to generate a random number based on the detection result.