mhurhangee/ep-ind-claims huggingface dataset:
An uplink channel receiving method, comprising: transmitting, by a base station, reserved power information of a first transmission time interval, TTI, and reserved power information of a second TTI to user equipment, UE; or transmitting reserved power information of a second TTI to the UE; and receiving, by the base station, the L uplink channels transmitted by the UE, wherein the L uplink channels comprise at least k second channels in m second channels, 1 ≤ k ≤ m, the second channel is an uplink channel on the second time unit numbered j, duration of the first time unit is the first TTI, duration of the second time unit is the second TTI, and duration of the second TTI is shorter than duration of the first TTI, wherein a first channel on at least one first time unit numbered i and a second channel on at least one second time unit numbered j overlap, characterized in that there is a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum value in (n×m) differences, and the (n×m) differences are modulus values obtained after performing, for each of (m-1) second channels in the m second channels other than the second channel, subtraction between an start transmission time point of the first time unit numbered i in which each of the n first channels is located and a start transmission time point of the second time unit numbered j in which a second channel in the m second channels is located. transmitting, by a base station, reserved power information of a first transmission time interval, TTI, and reserved power information of a second TTI to user equipment, UE; or transmitting reserved power information of a second TTI to the UE; and receiving, by the base station, the L uplink channels transmitted by the UE, wherein the L uplink channels comprise at least k second channels in m second channels, 1 ≤ k ≤ m, the second channel is an uplink channel on the second time unit numbered j, duration of the first time unit is the first TTI, duration of the second time unit is the second TTI, and duration of the second TTI is shorter than duration of the first TTI, wherein a first channel on at least one first time unit numbered i and a second channel on at least one second time unit numbered j overlap, characterized in that there is a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum value in (n×m) differences, and the (n×m) differences are modulus values obtained after performing, for each of (m-1) second channels in the m second channels other than the second channel, subtraction between an start transmission time point of the first time unit numbered i in which each of the n first channels is located and a start transmission time point of the second time unit numbered j in which a second channel in the m second channels is located.
A stove guard comprising a data processing unit and a temperature sensor arrangement for receiving thermal radiation from objects in a specific field of view and for supplying detector signals representative of the received thermal radiation to the data processing unit, wherein: - the temperature sensor arrangement includes at least three detector elements (201, 202, 203), their sensitivity bands located at different positions along an optical radiation wavelength axis, and - the sensitivity band of one of said detector elements (201, 202, 203) is limited to a wavelength range of less than 1.2 micrometres; wherein the processing unit is configured to identify the point in time when an object in the field of view of the temperature sensor arrangement exceeds a specific absolute temperature by comparing received thermal radiation on those of said sensitivity bands that correspond to different - relative to each other - wavelength ranges extending over 1.2 micrometers and their relative rates of change, characterized in that the processing unit is configured to use information of received radiation in the sensitivity band of less than 1.2 micrometers, from the detector element having a sensitivity band limited to a wavelength range of less than 1.2 micrometers, to cancel interference caused by unwanted radiation not related to the operation of the stove guard with the measurement results of at least one of the detector elements having a sensitivity band extending to a wavelength range of over 1.2 micrometres. - the temperature sensor arrangement includes at least three detector elements (201, 202, 203), their sensitivity bands located at different positions along an optical radiation wavelength axis, and - the sensitivity band of one of said detector elements (201, 202, 203) is limited to a wavelength range of less than 1.2 micrometres; wherein the processing unit is configured to identify the point in time when an object in the field of view of the temperature sensor arrangement exceeds a specific absolute temperature by comparing received thermal radiation on those of said sensitivity bands that correspond to different - relative to each other - wavelength ranges extending over 1.2 micrometers and their relative rates of change,
Card having a cylinder and a revolving flat with flat bars running around a portion of the circumference of the cylinder, wherein at least one flat bar is configured to transmit current operational data or an electrical contact to a controller of the card, wherein the at least one flat bar is configured to correspond with at least one contact element, wherein the contact element is configured to conduct the electrical contacts or data to the controller of the card, wherein the at least one contact element is arranged in the region of a flexible curve, characterised in that the at least one contact element has at least one contact curve which is configured to compensate for a change in distance between the flat bar and the cylinder so that contact for the transmission of data or an electrical contact is always ensured, wherein the at least one contact curve is arranged in a spring-loaded manner or resiliently on the contact element.
A hard coat laminated film comprising a first hard coat, a second hard coat, and a layer of a transparent resin film sequentially from the surface layer side, wherein the term "surface layer side" means a side closer to an outer surface when an article formed of the hard coat laminate having a multilayer structure is used on site, wherein the first hard coat is formed from a coating material that does not contain inorganic particles, while containing: 100 parts by mass of a polyfunctional (meth)acrylate; 0.5 to 20 parts by mass of a compound having two or more secondary thiol groups in each molecule; 0.01 to 7 parts by mass of a water-repellent agent; and 0.01 to 10 parts by mass of a silane coupling agent, wherein the term "does not contain inorganic particles" means that the amount of inorganic particles is 0 parts by mass or more and less than 1 part by mass based on 100 parts by mass of a resin component of a coating material, and the second hard coat is formed from a coating material that contains inorganic particles, wherein the term "contains inorganic particles" means that the amount of inorganic particles is 5 parts by mass or more based on 100 parts by mass of a resin component of a coating material. wherein the term "surface layer side" means a side closer to an outer surface when an article formed of the hard coat laminate having a multilayer structure is used on site, wherein the first hard coat is formed from a coating material that does not contain inorganic particles, while containing: 100 parts by mass of a polyfunctional (meth)acrylate; 0.5 to 20 parts by mass of a compound having two or more secondary thiol groups in each molecule; 0.01 to 7 parts by mass of a water-repellent agent; and 0.01 to 10 parts by mass of a silane coupling agent, wherein the term "does not contain inorganic particles" means that the amount of inorganic particles is 0 parts by mass or more and less than 1 part by mass based on 100 parts by mass of a resin component of a coating material, and the second hard coat is formed from a coating material that contains inorganic particles, wherein the term "contains inorganic particles" means that the amount of inorganic particles is 5 parts by mass or more based on 100 parts by mass of a resin component of a coating material. 100 parts by mass of a polyfunctional (meth)acrylate; 0.5 to 20 parts by mass of a compound having two or more secondary thiol groups in each molecule; 0.01 to 7 parts by mass of a water-repellent agent; and 0.01 to 10 parts by mass of a silane coupling agent, wherein the term "does not contain inorganic particles" means that the amount of inorganic particles is 0 parts by mass or more and less than 1 part by mass based on 100 parts by mass of a resin component of a coating material, and the second hard coat is formed from a coating material that contains inorganic particles, wherein the term "contains inorganic particles" means that the amount of inorganic particles is 5 parts by mass or more based on 100 parts by mass of a resin component of a coating material.
A telescoping sight, comprising: a sight housing; a moveable lens configured to be moved within the sight housing along a longitudinal axis of the sight housing; characterised by: a cam mechanism comprising: a focus cam having a spiral track formed therein, wherein the focus cam is rotatably mounted on the sight housing about an axis that extends laterally with respect to the sight housing; and a feature configured to be received within the spiral track, wherein the feature is constrained to move with the moveable lens within the sight housing; a coarse focus adjustment control being operable to rotate the focus cam to move the moveable lens via the spiral track; and a fine focus adjustment control, the fine focus adjustment control being interoperable with the spiral track to control the motion of the moveable lens. a sight housing; a moveable lens configured to be moved within the sight housing along a longitudinal axis of the sight housing; characterised by: a cam mechanism comprising: a focus cam having a spiral track formed therein, wherein the focus cam is rotatably mounted on the sight housing about an axis that extends laterally with respect to the sight housing; and a feature configured to be received within the spiral track, wherein the feature is constrained to move with the moveable lens within the sight housing; a coarse focus adjustment control being operable to rotate the focus cam to move the moveable lens via the spiral track; and a fine focus adjustment control, the fine focus adjustment control being interoperable with the spiral track to control the motion of the moveable lens. a cam mechanism comprising: a focus cam having a spiral track formed therein, wherein the focus cam is rotatably mounted on the sight housing about an axis that extends laterally with respect to the sight housing; and a feature configured to be received within the spiral track, wherein the feature is constrained to move with the moveable lens within the sight housing; a focus cam having a spiral track formed therein, wherein the focus cam is rotatably mounted on the sight housing about an axis that extends laterally with respect to the sight housing; and a feature configured to be received within the spiral track, wherein the feature is constrained to move with the moveable lens within the sight housing; a coarse focus adjustment control being operable to rotate the focus cam to move the moveable lens via the spiral track; and a fine focus adjustment control, the fine focus adjustment control being interoperable with the spiral track to control the motion of the moveable lens.
A heat storage material composition, comprising: a main agent composed of calcium chloride hexahydrate, ammonium bromide, and potassium chloride, wherein when a content of calcium chloride hexahydrate is defined as X mass%, a content of ammonium bromide is defined as Y mass%, and a content of potassium chloride is defined as Z mass% in 100 mass% of the main agent, X, Y, and Z satisfy following equations to: [Equation 1] X + Y + Z = 100 [Equation 2] X + 0.714 Y − 90.857 ≥ 0 [Equation 3] X + Y − 99.000 ≤ 0 [Equation 4] 4 ≤ Y ≤ 10 a main agent composed of calcium chloride hexahydrate, ammonium bromide, and potassium chloride, wherein when a content of calcium chloride hexahydrate is defined as X mass%, a content of ammonium bromide is defined as Y mass%, and a content of potassium chloride is defined as Z mass% in 100 mass% of the main agent, X, Y, and Z satisfy following equations to: [Equation 1] X + Y + Z = 100 [Equation 2] X + 0.714 Y − 90.857 ≥ 0 [Equation 3] X + Y − 99.000 ≤ 0 [Equation 4] 4 ≤ Y ≤ 10
A lighting device having light-emitting diodes, provided with a heat sink comprising a radiator, said heat sink comprising: - a base body, one of the faces of the base body, called lighting face, supporting said light-emitting diodes, said lighting face being intended to be oriented downwards, the other face of the base body, called heat-transmission face, being in contact with the radiator, - the radiator consisting of a one-piece element comprising: -- a plate, one of the faces of the plate being in contact with said heat-transmission face of the base body, - fins extending around said plate, said fins being oriented substantially perpendicularly to said plate in such a way as to allow the cooling of the light-emitting diodes via natural convection and wherein said face of the plate of the radiator in contact with the heat-transmission face is called lower face, walls of said one-piece element extending from the other face of said plate, called upper face, said walls being oriented perpendicularly to said plate, said fins being rigidly connected by the lower edge of said walls and wherein the device has a power unit and wherein said walls of said one-piece element form a housing inside of which the power unit is received, characterised in that the power unit is received in a case positioned in said housing in such a way as to create a layer of air between the inside of the housing and the case of the power unit, said plate of said radiator having orifices of vents in such a way as to allow the circulation of said layer of air via natural convection. - a base body, one of the faces of the base body, called lighting face, supporting said light-emitting diodes, said lighting face being intended to be oriented downwards, the other face of the base body, called heat-transmission face, being in contact with the radiator, - the radiator consisting of a one-piece element comprising: -- a plate, one of the faces of the plate being in contact with said heat-transmission face of the base body, -- a plate, one of the faces of the plate being in contact with said heat-transmission face of the base body, - fins extending around said plate, said fins being oriented substantially perpendicularly to said plate in such a way as to allow the cooling of the light-emitting diodes via natural convection and wherein said face of the plate of the radiator in contact with the heat-transmission face is called lower face, walls of said one-piece element extending from the other face of said plate, called upper face, said walls being oriented perpendicularly to said plate, said fins being rigidly connected by the lower edge of said walls and wherein the device has a power unit and wherein said walls of said one-piece element form a housing inside of which the power unit is received,
A cylinder, comprising a cylinder connection assembly comprising a ventilation connection sleeve sleeved on a piston shaft of a cylinder, wherein the ventilation connection sleeve is fixedly provided in a cylinder barrel of the cylinder and separates an inner cavity of the cylinder barrel to form a front air chamber and a rear air chamber, a first ventilation hole communicating with the front air chamber and a second ventilation hole communicating with the rear air chamber are provided on the ventilation connection sleeve, so that when the compressed gas is filled into the front air chamber through the first ventilation hole, or when the compressed gas is filled into the rear air chamber through the second ventilation hole, a piston assembly in the cylinder barrel can move axially, the piston assembly comprises a piston shaft, and a front piston and a rear piston which are fixedly provided on the piston shaft respectively, the piston shaft is sleeved on the drive shaft and both can move axially in a synchronous way, the ventilation connection sleeve is located between the front piston and the rear piston, the front air chamber is formed between the front piston and the ventilation connection sleeve, the rear air chamber is formed between the rear piston and the ventilation connection sleeve, characterised in that the cylinder further includes a cylinder barrel, a spline shaft, a drive shaft and a piston assembly; wherin the drive shaft is sleeved on the spline shaft and is connected to the spline shaft by spline so that when the compressed air is filled into the front air chamber or the rear air chamber, the piston assembly moves axially and drives the drive shaft to move axially and circumferentially. the piston assembly comprises a piston shaft, and a front piston and a rear piston which are fixedly provided on the piston shaft respectively, the piston shaft is sleeved on the drive shaft and both can move axially in a synchronous way, the ventilation connection sleeve is located between the front piston and the rear piston, the front air chamber is formed between the front piston and the ventilation connection sleeve, the rear air chamber is formed between the rear piston and the ventilation connection sleeve, characterised in that the cylinder further includes a cylinder barrel, a spline shaft, a drive shaft and a piston assembly; wherin the drive shaft is sleeved on the spline shaft and is connected to the spline shaft by spline so that when the compressed air is filled into the front air chamber or the rear air chamber, the piston assembly moves axially and drives the drive shaft to move axially and circumferentially.
An air leak detection device for a thoracic cavity drain system which, by utilizing negative pressure generated by a vacuum source, sucks gas within a thoracic cavity of a patient via a water seal chamber in which liquid is received, configured to be provided between the vacuum source and the water seal chamber, and comprising: a pressure measurement device configured to measure a pressure between the vacuum source and the water seal chamber; characterized in that the air leak detection device further comprises an air bubble detection device configured to detect occurrence of air bubbles created in the water seal chamber based on pressure fluctuations obtained by measured values measured by the pressure measurement device, wherein based on said measured values the occurrence of air bubbles is determined when a reduction of negative pressure greater than a fixed value has occurred within a predetermined fixed measurement time interval, and/or when the time in which a reduction of negative pressure has continued has become greater than or equal to a predetermined value. a pressure measurement device configured to measure a pressure between the vacuum source and the water seal chamber; characterized in that the air leak detection device further comprises an air bubble detection device configured to detect occurrence of air bubbles created in the water seal chamber based on pressure fluctuations obtained by measured values measured by the pressure measurement device, wherein based on said measured values the occurrence of air bubbles is determined when a reduction of negative pressure greater than a fixed value has occurred within a predetermined fixed measurement time interval, and/or when the time in which a reduction of negative pressure has continued has become greater than or equal to a predetermined value.
A method of managing blood glucose value of a diabetes user, the method comprising: conducting a plurality of glucose measurements from physiological fluids of a user with an analyte measurement and management device; verifying whether a most recent glucose measurement was made within a first predetermined time period; determining an insulin bolus for delivery to the user based on at least one of the plurality of blood glucose measurement values, insulin sensitivity of the user, insulin to carbohydrate ratio, and target glucose value; and reminding the user to conduct a glucose measurement (706, 712) within a second predetermined time period whenever a glucose measurement from the user's physiological fluid indicates an abnormal glucose value (702 - NO). conducting a plurality of glucose measurements from physiological fluids of a user with an analyte measurement and management device; verifying whether a most recent glucose measurement was made within a first predetermined time period; determining an insulin bolus for delivery to the user based on at least one of the plurality of blood glucose measurement values, insulin sensitivity of the user, insulin to carbohydrate ratio, and target glucose value; and reminding the user to conduct a glucose measurement (706, 712) within a second predetermined time period whenever a glucose measurement from the user's physiological fluid indicates an abnormal glucose value (702 - NO).
A device for repairing an aneurysm by deployment within the aneurysm, the device comprising: a tubular graft including a twin-walled top portion having an inner wall and an outer wall that is expandable in preference to the inner wall by insertion of a settable material into a space between said inner and outer walls, the tubular graft being twin-walled along only the top portion and a settable material for insertion into said space; wherein the twin-walled top portion is dimensioned such that, in use, it can be deployed in an aorta and be inflated so as to cause the outer wall to contact a proximal neck of the aorta above the aneurysm to fix the tubular graft in the proximal neck of the aorta to support the device. a tubular graft including a twin-walled top portion having an inner wall and an outer wall that is expandable in preference to the inner wall by insertion of a settable material into a space between said inner and outer walls, the tubular graft being twin-walled along only the top portion and a settable material for insertion into said space; wherein the twin-walled top portion is dimensioned such that, in use, it can be deployed in an aorta and be inflated so as to cause the outer wall to contact a proximal neck of the aorta above the aneurysm to fix the tubular graft in the proximal neck of the aorta to support the device.
Intestines processing system comprising a conveyor track with carriers, a tissue breaking section and a gallbladder removal station, wherein each carrier is equipped to carry an intestines package taken out of a poultry carcass, said intestines package at least comprising liver, gizzard and gallbladder, wherein the carrier is equipped to move the intestines package through the tissue breaking section for breaking at least some of the tissue connections in the intestines package below the gallbladder, and to move the intestines package through the gallbladder removal station for removing at least the gallbladder from the remainder of the intestines package, characterized in that the tissue breaking section comprises a conveyor roll for conveying the intestines package jointly with the carriers of the conveyor track, wherein the conveyor roll has an entrance section distant from the gallbladder removal station and an exit section proximate to the gallbladder removal station, wherein the conveyor roll is upward tilting with a first vertical distance from the entrance section to the conveyor track that is larger than a second vertical distance from the exit section to the conveyor track.