mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: allocating subframes within a plurality of radio frames transmitted to a user equipment within a subframes allocation period, wherein the subframes include multicast broadcast service single frequency network subframes; and transmitting, to the user equipment, a message comprising an indication of the allocation of the subframes for the plurality of radio frames, wherein the indication is representative of the allocation of subframes within consecutive radio frames of the plurality of radio frames for the subframes allocation period, wherein the message is transmitted without the indication identifying the radio frames including the allocated subframes; wherein the method comprises allocating a first set of subframes into a first radio frame transmitted to the user equipment, the first set of subframes identified based on a first portion of a subframe allocation pattern; allocating a second set of subframes into a second radio frame transmitted to the user equipment, the second set of subframes identified based on a second portion of the subframe allocation pattern; allocating a third set of subframes into a third radio frame transmitted to the user equipment, the third set of subframes identified based on a third portion of the subframe allocation pattern; and allocating a fourth set of subframes into a fourth radio frame transmitted to the user equipment, the fourth set of subframes identified based on a fourth portion of the subframe allocation pattern; the first, second, third and fourth radio frames being consecutive radio frames. allocating subframes within a plurality of radio frames transmitted to a user equipment within a subframes allocation period, wherein the subframes include multicast broadcast service single frequency network subframes; and transmitting, to the user equipment, a message comprising an indication of the allocation of the subframes for the plurality of radio frames, wherein the indication is representative of the allocation of subframes within consecutive radio frames of the plurality of radio frames for the subframes allocation period, wherein the message is transmitted without the indication identifying the radio frames including the allocated subframes; wherein the method comprises allocating a first set of subframes into a first radio frame transmitted to the user equipment, the first set of subframes identified based on a first portion of a subframe allocation pattern; allocating a second set of subframes into a second radio frame transmitted to the user equipment, the second set of subframes identified based on a second portion of the subframe allocation pattern; allocating a third set of subframes into a third radio frame transmitted to the user equipment, the third set of subframes identified based on a third portion of the subframe allocation pattern; and allocating a fourth set of subframes into a fourth radio frame transmitted to the user equipment, the fourth set of subframes identified based on a fourth portion of the subframe allocation pattern; the first, second, third and fourth radio frames being consecutive radio frames.
An ink supply apparatus for a printer, comprising: an ink chamber to store ink; and a machine readable storage medium, carried by the ink supply, to store a plurality of priming parameters, the priming parameter having a value to cause a printer to configure a priming procedure of the printer, wherein the priming parameter comprises a value to cause the printer to permit priming procedures associated with the ink supply subsequent to an initial priming procedure wherein the initial priming procedure is a priming procedure to be performed at the time of an initial or out-of-box set up, prior to any printing by the printer, and wherein the ink supply for the printer is one of a magenta ink supply, a cyan ink supply and a yellow ink supply, which are able to provide ink to the same printhead or set of printheads, wherein the priming parameter comprises a count of a number of priming procedures to be performed by the printer, and wherein the machine readable storage medium is to store a plurality of priming parameters, wherein the print head or set of printheads are able to undergo a priming procedure that affects the cyan, yellow and magenta ink supplies (106M, 106C, 106Y) simultaneously, wherein the machine-readable storage medium of the ink supply for the printer is selectable as a representative of the print head (104 C) by a priming controller for the purposes of configuring the printer to perform priming procedures on said printhead or set of printheads, wherein the priming parameter comprises a value to cause the printer to perform or not to perform pre-job priming procedures (222, 224). an ink chamber to store ink; and a machine readable storage medium, carried by the ink supply, to store a plurality of priming parameters, the priming parameter having a value to cause a printer to configure a priming procedure of the printer, wherein the priming parameter comprises a value to cause the printer to permit priming procedures associated with the ink supply subsequent to an initial priming procedure wherein the initial priming procedure is a priming procedure to be performed at the time of an initial or out-of-box set up, prior to any printing by the printer, and wherein the ink supply for the printer is one of a magenta ink supply, a cyan ink supply and a yellow ink supply, which are able to provide ink to the same printhead or set of printheads, wherein the priming parameter comprises a count of a number of priming procedures to be performed by the printer, and wherein the machine readable storage medium is to store a plurality of priming parameters, wherein the print head or set of printheads are able to undergo a priming procedure that affects the cyan, yellow and magenta ink supplies (106M, 106C, 106Y) simultaneously, wherein the machine-readable storage medium of the ink supply for the printer is selectable as a representative of the print head (104 C) by a priming controller for the purposes of configuring the printer to perform priming procedures on said printhead or set of printheads, wherein the priming parameter comprises a value to cause the printer to perform or not to perform pre-job priming procedures (222, 224).
Roll drive, comprising a rotary union for the feed and/or discharge of a pressurised medium into or from an axial cavity of a rotating machine part with a non-rotating union part fixed relative to the equipment, a rotating union part and with bearing means and sealing means (20, 21), which act in a radial sealing plane between the rotating union part and the union part fixed relative to the equipment, wherein the bearing means comprise individual support bearings in the form of support rollers (13, 14, 26, 27, 28, 29, 30, 31, 32) which fix the radial spacing between the rotary union part fixed relative to the equipment and the rotating union part, wherein the roller bearings of the support roller are disposed under such a play-free bias that play-free running of the rotating rotary union part is thereby achieved.
An endoscope tip (200, 300) having a length extending from a proximal end to a distal end, comprising: a base comprising the proximal end, said base having a first channel (6506, 6516) extending from a face of the proximal end to a first opening (605a, 605b, 610a, 610b) positioned on a side of the base; a manifold attached to the base and comprising the distal end, said manifold having at least one fluidically isolated channel; an optical assembly having at least two cameras, wherein the optical assembly is attached to said manifold; and a fluid distribution device, wherein said fluid distribution device is adapted to connect to said first opening (605a, 605b, 610a, 610b) and comprises a plurality of channels extending through the fluid distribution device and to a plurality of openings on a surface of said fluid distribution device, each of said plurality of channels being adapted to receive fluid from the first channel (6506, 6516) and distribute the fluid to at least one of said plurality of openings, characterised in that the fluid distribution device comprises a ring having an internal surface and external surface, wherein the internal surface of the ring comprises said plurality of channels and wherein each of said plurality of channels is adapted to direct fluid from the first channel (6506, 6516) to the plurality of openings (130, 7204) on the external surface. a base comprising the proximal end, said base having a first channel (6506, 6516) extending from a face of the proximal end to a first opening (605a, 605b, 610a, 610b) positioned on a side of the base; a manifold attached to the base and comprising the distal end, said manifold having at least one fluidically isolated channel; an optical assembly having at least two cameras, wherein the optical assembly is attached to said manifold; and a fluid distribution device, wherein said fluid distribution device is adapted to connect to said first opening (605a, 605b, 610a, 610b) and comprises a plurality of channels extending through the fluid distribution device and to a plurality of openings on a surface of said fluid distribution device, each of said plurality of channels being adapted to receive fluid from the first channel (6506, 6516) and distribute the fluid to at least one of said plurality of openings, characterised in that the fluid distribution device comprises a ring having an internal surface and external surface, wherein the internal surface of the ring comprises said plurality of channels and wherein each of said plurality of channels is adapted to direct fluid from the first channel (6506, 6516) to the plurality of openings (130, 7204) on the external surface.
A seismic receiver for detecting seismic energy and for transmitting digital data relating to the detected seismic energy to a data recorder, the receiver comprising: a casing; a seismic energy detector that detects the seismic energy and converts the detected seismic energy into an analog electrical signal; an analog to digital converter, coupled to the seismic energy detector, that converts the analog electrical signal into multiple digital data points, wherein: the seismic receiver comprises digital signal transmission circuitry, coupled to the analog to digital converter, that is operable to transmit the multiple digital data points as a bundle to the data recorder; the seismic energy detector, the digital transmission circuitry, and the analog to digital converter are housed within the casing; and test circuitry coupled to the seismic energy detector, wherein the test circuitry is operable to transmit test signals to test the seismic energy detector, and wherein a response from the seismic energy detector is used to determine a compensation factor for an orientation of the seismic receiver based on its angle to the ground. a casing; a seismic energy detector that detects the seismic energy and converts the detected seismic energy into an analog electrical signal; an analog to digital converter, coupled to the seismic energy detector, that converts the analog electrical signal into multiple digital data points, wherein: the seismic receiver comprises digital signal transmission circuitry, coupled to the analog to digital converter, that is operable to transmit the multiple digital data points as a bundle to the data recorder; the seismic energy detector, the digital transmission circuitry, and the analog to digital converter are housed within the casing; and test circuitry coupled to the seismic energy detector, wherein the test circuitry is operable to transmit test signals to test the seismic energy detector, and wherein a response from the seismic energy detector is used to determine a compensation factor for an orientation of the seismic receiver based on its angle to the ground. the seismic receiver comprises digital signal transmission circuitry, coupled to the analog to digital converter, that is operable to transmit the multiple digital data points as a bundle to the data recorder; the seismic energy detector, the digital transmission circuitry, and the analog to digital converter are housed within the casing; and test circuitry coupled to the seismic energy detector, wherein the test circuitry is operable to transmit test signals to test the seismic energy detector, and wherein a response from the seismic energy detector is used to determine a compensation factor for an orientation of the seismic receiver based on its angle to the ground.
A viewing angle switchable display apparatus, comprising: a display panel including two polarizers (112, 114) respectively arranged at opposite sides of the display panel; an electrically controlled viewing angle switching device, opposite to the display panel and comprising two first transparent substrates (121, 122), two first transparent conductive layers (123, 124) located between the two first transparent substrates (121, 122), a liquid crystal layer located between the two first transparent conductive layers (123, 124) and a first polarizer located on a side of the electrically controlled viewing angle switching device which is far away from the display panel, wherein the liquid crystal layer comprises a plurality of liquid crystal molecules, and optical axes of the liquid crystal molecules are parallel or perpendicular to a transmission axis of the first polarizer, wherein the transmission axis of the first polarizer is parallel to a transmission axis of the one of the two polarizers of the display panel which is adjacent to the first polarizer; an electrically controlled light scattering switching device, comprising two second transparent substrates (131, 132), two second transparent conductive layers (133, 134) located between the two second transparent substrates (131, 132) and an electronically controlled polymer material layer located between the two second transparent conductive layers (133, 134); and a backlight module, wherein the electrically controlled light scattering switching device is located between the display panel and the backlight module. a display panel including two polarizers (112, 114) respectively arranged at opposite sides of the display panel; an electrically controlled viewing angle switching device, opposite to the display panel and comprising two first transparent substrates (121, 122), two first transparent conductive layers (123, 124) located between the two first transparent substrates (121, 122), a liquid crystal layer located between the two first transparent conductive layers (123, 124) and a first polarizer located on a side of the electrically controlled viewing angle switching device which is far away from the display panel, wherein the liquid crystal layer comprises a plurality of liquid crystal molecules, and optical axes of the liquid crystal molecules are parallel or perpendicular to a transmission axis of the first polarizer, wherein the transmission axis of the first polarizer is parallel to a transmission axis of the one of the two polarizers of the display panel which is adjacent to the first polarizer; an electrically controlled light scattering switching device, comprising two second transparent substrates (131, 132), two second transparent conductive layers (133, 134) located between the two second transparent substrates (131, 132) and an electronically controlled polymer material layer located between the two second transparent conductive layers (133, 134); and a backlight module, wherein the electrically controlled light scattering switching device is located between the display panel and the backlight module.
An alignment apparatus that aligns a multi-core optical fiber (2a,120) whose cross section has a marker, comprising: an acquisition unit that acquires one or more side images of the multi-core optical fiber and corresponding one or more reference side images, wherein the reference side images are previously stored side images of the multi-core optical fiber at an aligned rotation angle or are side images of another multi-core optical fiber to which the multi-core optical fiber is being aligned; a calculation unit that averages luminance of the side image in the axis direction of the multi-core optical fiber, averages luminance of the reference side images in the axis direction of the multi-core optical fiber, and calculates correlation coefficients between averaged luminance of the side image and averaged luminance of the reference side image; and a rotation processing unit that rotates the multi-core optical fiber in the axis direction of the multi-core optical fiber so that the correlation coefficients peak, wherein the calculation unit calculates correlation coefficients according to ZNCC = ∑ i = 0 M − 1 L i − L ̅ R i − R ̅ ∑ i = 0 M − 1 L i − L ̅ 2 × ∑ i = 0 M − 1 R i − R ̅ 2; the i indicates positions in a cross-section direction of the multi-core optical fiber; L(i) indicates the i-th average luminance of the side image; R(i) indicates the i-th average luminance of the reference side image; M indicates the total number of i; L indicates the average value of L(i); and R indicates the average value of R(i). an acquisition unit that acquires one or more side images of the multi-core optical fiber and corresponding one or more reference side images, wherein the reference side images are previously stored side images of the multi-core optical fiber at an aligned rotation angle or are side images of another multi-core optical fiber to which the multi-core optical fiber is being aligned; a calculation unit that averages luminance of the side image in the axis direction of the multi-core optical fiber, averages luminance of the reference side images in the axis direction of the multi-core optical fiber, and calculates correlation coefficients between averaged luminance of the side image and averaged luminance of the reference side image; and a rotation processing unit that rotates the multi-core optical fiber in the axis direction of the multi-core optical fiber so that the correlation coefficients peak, wherein the calculation unit calculates correlation coefficients according to ZNCC = ∑ i = 0 M − 1 L i − L ̅ R i − R ̅ ∑ i = 0 M − 1 L i − L ̅ 2 × ∑ i = 0 M − 1 R i − R ̅ 2; the i indicates positions in a cross-section direction of the multi-core optical fiber; L(i) indicates the i-th average luminance of the side image; R(i) indicates the i-th average luminance of the reference side image; M indicates the total number of i; L indicates the average value of L(i); and R indicates the average value of R(i).
A composite stretch material which is comprised of a first nonwoven fabric sheet part and second nonwoven fabric sheet part which are superposed over each other, and elastic members which are arranged between the first nonwoven fabric sheet part and the second nonwoven fabric sheet part, wherein each of the nonwoven fabric sheet parts is formed with concave parts and convex parts in a thickness direction of the nonwoven fabric sheet part, the concave parts and the convex parts are alternately repeatedly formed in a first direction and respectively extend in a second direction perpendicular to the first direction, so as to define convex-concave rows, the convex-concave rows are separated from each other by non-shaped regions which extend along the first direction without including the concave parts and the convex parts, the convex parts project out from thickness direction positions of corresponding non-shaped regions of the nonwoven fabric sheet parts, the concave parts which are formed between two of the convex parts which adjoin each other reach thickness direction positions of the non-shaped regions, the first nonwoven fabric sheet part and the second nonwoven fabric sheet part are superposed so that the non-shaped regions face each other while the convex parts of the first nonwoven fabric sheet part face the second nonwoven fabric sheet part and the convex parts of the second nonwoven fabric sheet part face the first nonwoven fabric sheet part and the elastic members are arranged in a state stretched in the first direction between the aligned non-shaped regions, the aligned non-shaped regions are joined through elastic members, and the convex parts of the first nonwoven fabric sheet part enter re-spectively into the insides of the concave parts of the second nonwoven fabric sheet part and the convex parts of the second nonwoven fabric sheet part enter respectively into the insides of the concave parts of the first nonwoven fabric sheet part.
Method for protecting a field-effect transistor (12,14) operated in a switching mode against an overload current in a turned-on switching state, in which: - an electrical drain-source voltage is detected between a drain terminal and a source terminal of the field-effect transistor (12,14), - the drain-source voltage is compared with a predefined voltage comparison value, and - the field-effect transistor (12,14) is switched into a turned-off switching state if the drain-source voltage is greater than the voltage comparison value, wherein, for the purpose of a temperature compensation of the protection, - a temperature of the field-effect transistor (12,14) is measured, and - during the turned-on switching state, the voltage comparison value is additionally also dependent on the time during the turned-on switching state, wherein the voltage comparison value is set as a function of the temperature, wherein the voltage comparison value is reduced as a function of the time during the turned-on switching state, wherein the voltage comparison value is reduced by a predefined voltage reduction value at a predefined first time point during the turned-on switching state, wherein the voltage reduction value is varied exponentially, wherein a time constant of the exponential variation of the voltage reduction value is chosen adjusted to a decay time constant of an oscillation of the drain-source voltage, wherein the voltage comparison value is set to a constant value between a turn-on time point of the field-effect transistor (12,14) and the first time point (t 1) independently of the temperature, wherein the voltage reduction value is dependent on the temperature and is activated at a second time point (t 2) that lies later than the first time point (t 1) during the turned-on switching state. - an electrical drain-source voltage is detected between a drain terminal and a source terminal of the field-effect transistor (12,14), - the drain-source voltage is compared with a predefined voltage comparison value, and - the field-effect transistor (12,14) is switched into a turned-off switching state if the drain-source voltage is greater than the voltage comparison value, wherein, for the purpose of a temperature compensation of the protection, - a temperature of the field-effect transistor (12,14) is measured, and - during the turned-on switching state, the voltage comparison value is additionally also dependent on the time during the turned-on switching state,