mhurhangee/patent-ind-claim-en huggingface dataset:
A biological information monitoring system configured to monitor biological information of a subject (S) on a bed (BD), the biological information monitoring system comprising: at least one load detector provided below the bed (BD) or legs of the bed (BD) and configured to detect a load of the subject (S) on the bed (BD); a waveform calculation unit configured to calculate a waveform indicating a temporal variation in a detected value of the at least one load detector in accordance with respiration or a heartbeat of the subject (S); and a biological information calculation unit configured to calculate a respiration rate or a heart rate of the subject (S) by using the waveform, the biological information calculation unit including a first calculation unit configured to calculate the respiration rate or the heart rate of the subject (S) by a first means based on the waveform, a second calculation unit configured to calculate the respiration rate or the heart rate of the subject (S) by a second means that differs from the first means and includes normalizing the waveform by removing the effects of an amplitude of the waveform and yielding essentially a rectangular wave function, and a calculation control unit configured to cause the second calculation unit to calculate the respiration rate or the heart rate when an amplitude of the waveform is a threshold value or less. at least one load detector provided below the bed (BD) or legs of the bed (BD) and configured to detect a load of the subject (S) on the bed (BD); a waveform calculation unit configured to calculate a waveform indicating a temporal variation in a detected value of the at least one load detector in accordance with respiration or a heartbeat of the subject (S); and a biological information calculation unit configured to calculate a respiration rate or a heart rate of the subject (S) by using the waveform, the biological information calculation unit including a first calculation unit configured to calculate the respiration rate or the heart rate of the subject (S) by a first means based on the waveform, a second calculation unit configured to calculate the respiration rate or the heart rate of the subject (S) by a second means that differs from the first means and includes normalizing the waveform by removing the effects of an amplitude of the waveform and yielding essentially a rectangular wave function, and a calculation control unit configured to cause the second calculation unit to calculate the respiration rate or the heart rate when an amplitude of the waveform is a threshold value or less.
A medical device with a tubular wall produced from webs which delimit cells , and with a flexible membrane which forms at least one flap which has - a first end connected to at least one first web of a cell , and - a free second end disposed opposite the first end in the longitudinal direction of the flap , and wherein the flap can be moved - into a closed position in which the flap extends along the tubular wall and at least partially closes the cell , and - automatically into an open position as a consequence of a pressure gradient or a fluid flow, in which the flap is radially deflected relative to the wall in order to open the cell in the manner of a valve, characterized in that the flap is connected to the web in a linear manner. - a first end connected to at least one first web of a cell , and - a free second end disposed opposite the first end in the longitudinal direction of the flap , and wherein the flap can be moved - into a closed position in which the flap extends along the tubular wall and at least partially closes the cell , and - automatically into an open position as a consequence of a pressure gradient or a fluid flow, in which the flap is radially deflected relative to the wall in order to open the cell in the manner of a valve,
An autoinjector device comprising: a body portion ; a syringe carrier , for supporting a syringe with a needle at its forward end, the syringe carrier being moveably mounted within the body portion such that forward movement relative to the body portion may extend the needle from a forward end of the body portion; a delivery mechanism arranged to forwardly displace the syringe carrier relative to the body portion and to deliver a dose of medicament from the syringe, the syringe carrier comprising a latch element arranged to cooperate with a corresponding retention feature of the body portion to releasably block forward displacement of the syringe carrier by the delivery mechanism and hold the syringe carrier in a rearward position within the body potion; and a shroud at a forward end of the device comprising a locking arrangement which blocks releasing movement of the latch element from the retention feature when the shroud is in a first, forward position and is unlocked when the shroud is in a second, rearward position to allow the syringe carrier to be forwardly displaced by the delivery mechanism; characterised in that the shroud comprises a stop surface that cooperates with a stop surface on the latch element of said syringe carrier to limit the extent of forward movement of said shroud relative to said syringe carrier . a body portion ; a syringe carrier , for supporting a syringe with a needle at its forward end, the syringe carrier being moveably mounted within the body portion such that forward movement relative to the body portion may extend the needle from a forward end of the body portion; a delivery mechanism arranged to forwardly displace the syringe carrier relative to the body portion and to deliver a dose of medicament from the syringe, the syringe carrier comprising a latch element arranged to cooperate with a corresponding retention feature of the body portion to releasably block forward displacement of the syringe carrier by the delivery mechanism and hold the syringe carrier in a rearward position within the body potion; and a shroud at a forward end of the device comprising a locking arrangement which blocks releasing movement of the latch element from the retention feature when the shroud is in a first, forward position and is unlocked when the shroud is in a second, rearward position to allow the syringe carrier to be forwardly displaced by the delivery mechanism; characterised in that the shroud comprises a stop surface that cooperates with a stop surface on the latch element of said syringe carrier to limit the extent of forward movement of said shroud relative to said syringe carrier .
A light emitting device comprising: a board ; a light emitting element mounted on a principal surface of the board , the light emitting element emitting light having a wavelength of 250 nm to 500 nm; a red fluorescent layer formed on the light emitting element ; and a green fluorescent layer ; wherein the red fluorescent layer includes a red phosphor expressed by composition , an outer circumference of the red fluorescent layer having a semicircular shape with a radius r in a section perpendicular to the principal surface; (M 1-x1 Eu x1 ) a Si b AlO c N d wherein, in the composition , M is an element that is selected from Group 1 elements, Group 2 elements, Group 3 elements, Group 13 elements except Al (Aluminum), rare-earth elements, and Group 14 elements, and x1, a, b, c, and d satisfy the following relationship: 0 < x 1 ≤ 1 , 0.60 < a < 0.95 , 2.0 < b < 3.9 , 0.04 ≤ c ≤ 0.6 , 4 < d < 5.7 ; characterised in that an intermediate layer is formed on the red fluorescent layer , the intermediate layer being made of transparent resin, an outer circumference of the intermediate layer having a semicircular shape with a radius D in a section perpendicular to the principal surface; and the green fluorescent layer is formed on the intermediate layer , the green fluorescent layer including a green phosphor, an outer circumference of the green fluorescent layer having a semicircular shape in a section perpendicular to the principal surface, wherein a relationship between the radius r and the radius D satisfies equation : 2.0 ⁢ r μm ≤ D ≤ r + 1000 μm . a board ; a light emitting element mounted on a principal surface of the board , the light emitting element emitting light having a wavelength of 250 nm to 500 nm; a red fluorescent layer formed on the light emitting element ; and a green fluorescent layer ; wherein the red fluorescent layer includes a red phosphor expressed by composition , an outer circumference of the red fluorescent layer having a semicircular shape with a radius r in a section perpendicular to the principal surface; (M 1-x1 Eu x1 ) a Si b AlO c N d wherein, in the composition , M is an element that is selected from Group 1 elements, Group 2 elements, Group 3 elements, Group 13 elements except Al (Aluminum), rare-earth elements, and Group 14 elements, and x1, a, b, c, and d satisfy the following relationship: 0 < x 1 ≤ 1 , 0.60 < a < 0.95 , 2.0 < b < 3.9 , 0.04 ≤ c ≤ 0.6 , 4 < d < 5.7 ; characterised in that an intermediate layer is formed on the red fluorescent layer , the intermediate layer being made of transparent resin, an outer circumference of the intermediate layer having a semicircular shape with a radius D in a section perpendicular to the principal surface; and the green fluorescent layer is formed on the intermediate layer , the green fluorescent layer including a green phosphor, an outer circumference of the green fluorescent layer having a semicircular shape in a section perpendicular to the principal surface, wherein a relationship between the radius r and the radius D satisfies equation : 2.0 ⁢ r μm ≤ D ≤ r + 1000 μm .
A non-oriented electrical steel sheet, consisting of, in mass%: C: not less than 0.0001% and not more than 0.0040%, Si: more than 3.0% and not more than 3.7%, sol.Al: not less than 0.3% and not more than 1.0%, Mn: not less than 0.5% and not more than 1.5%, Sn: not less than 0.005% and not more than 0.1%, Ti: not less than 0.0001% and not more than 0.0030%, S: not less than 0.0001% and not more than 0.0020%, N: not less than 0.0001% and not more than 0.003%, Ni: not less than 0.001% and not more than 0.2%, and P: not less than 0.005% and not more than 0.05%, with a balance consisting of Fe and impurities, wherein a resistivity p at room temperature ≥ 60 μΩcm, and saturation magnetic flux density Bs at room temperature ≥ 1.945T are established, and the components contained satisfy 3.5 ≤ Si + (2/3) × sol.Al + (1/5) × Mn ≤ 4.25. C: not less than 0.0001% and not more than 0.0040%, Si: more than 3.0% and not more than 3.7%, sol.Al: not less than 0.3% and not more than 1.0%, Mn: not less than 0.5% and not more than 1.5%, Sn: not less than 0.005% and not more than 0.1%, Ti: not less than 0.0001% and not more than 0.0030%, S: not less than 0.0001% and not more than 0.0020%, N: not less than 0.0001% and not more than 0.003%, Ni: not less than 0.001% and not more than 0.2%, and P: not less than 0.005% and not more than 0.05%, with a balance consisting of Fe and impurities, wherein a resistivity p at room temperature ≥ 60 μΩcm, and saturation magnetic flux density Bs at room temperature ≥ 1.945T are established, and the components contained satisfy 3.5 ≤ Si + (2/3) × sol.Al + (1/5) × Mn ≤ 4.25.
A method of controlling a voltage source converter including at least one converter limb , the or each converter limb extending between first and second DC terminals and including first and second limb portions separated by an AC terminal , at least one limb portion including a chain-link converter having a plurality of series-connected modules , each module including at least one switching element and at least one energy storage device , the or each switching element and the or each energy storage device of each module combining to selectively provide a voltage source (V IND ), characterized in that the corresponding chain-link converter is operable to provide a stepped variable voltage source (V A+ , V B+ , V C+ , V A- , V B- , V C- ), the method comprising with respect to at least one chain-link converter the steps of: (a) establishing during an operating cycle of the chain-link converter a utilisation peak (Up) based on the actual peak number of modules providing a voltage source (V IND ), wherein the utilisation peak (U P ) is a ratio of the actual peak number of modules providing a voltage source (V IND ) during an operating cycle of the chain-link converter to the total number of modules available to provide a voltage source; (b) establishing a target utilisation (U T ) based on a desired number of modules providing a voltage source (V IND ) during an operating cycle of the chain-link converter ; and (c) determining, based on a difference between the established utilisation peak (U P ) and the target utilisation (U T ), a control function (Fc) which modifies an operating cycle average module voltage (V AVE ) of the modules within the chain-link converter and alters the peak number of modules providing a voltage source (V IND ) during a subsequent operating cycle of the chain-link converter so as to drive the utilisation peak (Up) towards the target utilisation (U T ). (a) establishing during an operating cycle of the chain-link converter a utilisation peak (Up) based on the actual peak number of modules providing a voltage source (V IND ), wherein the utilisation peak (U P ) is a ratio of the actual peak number of modules providing a voltage source (V IND ) during an operating cycle of the chain-link converter to the total number of modules available to provide a voltage source; (b) establishing a target utilisation (U T ) based on a desired number of modules providing a voltage source (V IND ) during an operating cycle of the chain-link converter ; and (c) determining, based on a difference between the established utilisation peak (U P ) and the target utilisation (U T ), a control function (Fc) which modifies an operating cycle average module voltage (V AVE ) of the modules within the chain-link converter and alters the peak number of modules providing a voltage source (V IND ) during a subsequent operating cycle of the chain-link converter so as to drive the utilisation peak (Up) towards the target utilisation (U T ).
A wall hung boiler device comprising a boiler which has at least one body sheet (GS) and at least one front panel sheet (OPS) that allows to see and interfere with the internal structure of the body sheet (GS), and characterized by comprising a smart lock which allows the front panel sheet (OPS) of boiler devices to be opened only via Bluetooth connection and comprises - At least one lock body which is located on a position of the body sheet (GS) of the boiler that is close to the front panel sheet (OPS), - At least one latch which is positioned in the inner volume of the lock body and which acts as a lock by means of limiting the movement of the front panel sheet (OPS) mounted to the boiler body sheet (GS) by extending towards the front panel sheet (OPS) through an opening located close to the front panel sheet (OPS), - At least one electronic circuit which enables the front sheet to be locked by means of pulling the latch out of the lock body or the front sheet to be unlocked by means of pulling the latch inside the lock body , and which, by means of a Bluetooth connection, enables the operation of a step motor that enables the rotation of a cogwheel located inside the lock body and contacting the teeth on the latch in order to convert the rotational movement into linear movement. - At least one lock body which is located on a position of the body sheet (GS) of the boiler that is close to the front panel sheet (OPS), - At least one latch which is positioned in the inner volume of the lock body and which acts as a lock by means of limiting the movement of the front panel sheet (OPS) mounted to the boiler body sheet (GS) by extending towards the front panel sheet (OPS) through an opening located close to the front panel sheet (OPS), - At least one electronic circuit which enables the front sheet to be locked by means of pulling the latch out of the lock body or the front sheet to be unlocked by means of pulling the latch inside the lock body , and which, by means of a Bluetooth connection, enables the operation of a step motor that enables the rotation of a cogwheel located inside the lock body and contacting the teeth on the latch in order to convert the rotational movement into linear movement.
Bearing arrangement for mounting a container processing carousel with respect to a base frame of a container processing apparatus in a beverage filling installation, comprising a bearing shaft which extends along a longitudinal axis , a bearing cup which is rotatable relative to the bearing shaft , an adjusted bearing assembly arranged between the bearing shaft and the bearing cup for mounting the bearing cup with respect to the bearing shaft , and an annular preload unit for applying a specified preload to the adjusted bearing assembly , characterized in that the annular preload unit for applying the preload to the adjusted bearing assembly comprises a plurality of spring packages which are distributed uniformly in a circumferential direction relative to the longitudinal axis .
Package unit comprising a packaging and a single polishing pad contained in the packaging and adapted for use with hand-guided polishers, characterized in that the packaging is a flow pack, a material of the flow pack is opaque or the flow pack has an opaque coating, the package unit is manufactured from a material layer, which is either rolled up on a roll or folded into a stack or pile in web form, brought into a tubular form by folding the lateral sides of the material layer together and sealing them, inserting the polishing pad therein and permanently sealing a front side and an opposite back side of the tubular form in order to form two transverse airtight sealing seams , and the flow pack has a gas enclosed therein after the opposite sides of the flow pack have been permanently sealed in an airtight manner, the enclosed gas having a larger volume than the polishing pad contained in the flow pack , and the gas providing the polishing pad with an air-cushion damping effect during transport and handling of the package unit . characterized in that the packaging is a flow pack, a material of the flow pack is opaque or the flow pack has an opaque coating, the package unit is manufactured from a material layer, which is either rolled up on a roll or folded into a stack or pile in web form, brought into a tubular form by folding the lateral sides of the material layer together and sealing them, inserting the polishing pad therein and permanently sealing a front side and an opposite back side of the tubular form in order to form two transverse airtight sealing seams , and the flow pack has a gas enclosed therein after the opposite sides of the flow pack have been permanently sealed in an airtight manner, the enclosed gas having a larger volume than the polishing pad contained in the flow pack , and the gas providing the polishing pad with an air-cushion damping effect during transport and handling of the package unit .
An insulating, disposable container comprising: - an outer casing made of an insulating material for packaging; - an inner casing made of an insulating material for packaging; wherein said inner casing is housed in said outer casing , wherein it further comprises a plurality of spacers (130; 122e, 123, 125), said spacers (130; 122e, 123, 125) being arranged between the inner casing and the outer casing and defining at least one cavity between them; characterized in that the inner casing is formed by folding a flat die-cut blank (B) made of cardboard; wherein said blank (B) comprises a base and four flaps which extend outwards from the edges of said base , wherein each flap comprises a first portion that is arranged adjacent to the respective edge of the base and has at least one through-opening , as well as a second portion separated from said first portion by a folding edge parallel to the corresponding edge of the base ; wherein the inner casing is realized by folding the second portion of each flap by 180° about their respective folding edge , with said second portion oriented towards the inside of the inner casing , superimposed to the first portion and spaced from said first portion by said folding edge , with said first portion oriented towards the outside of the inner casing , and by rotating the flaps by 90° relative to the base . - an outer casing made of an insulating material for packaging; - an inner casing made of an insulating material for packaging;
A method for measuring the sulfur solubility of a test gas at a test temperature and test pressure in a laboratory apparatus, comprising: flowing the test gas into a first conduit , wherein the first conduit is packed with elemental sulfur, and is maintained at a first temperature that is sufficient to result in the uptake of elemental sulfur by the test gas in excess of the natural equilibrium solubility level of elemental sulfur in the test gas at the test temperature; introducing the test gas containing elemental sulfur into a second conduit , the second conduit being in fluid communication with the first conduit and maintained at a second temperature sufficient to lower the temperature of the test gas to a temperature that is equal to the test temperature, whereby the amount of elemental sulfur in the test gas is reduced to its natural equilibrium solubility level in the test gas at the test temperature; flowing the test gas into a third conduit that is in fluid communication with the second conduit , wherein at least a portion of the third conduit is maintained at a third temperature sufficient to result in deposition of the elemental sulfur from the test gas into a portion of the third conduit ; and calculating the sulfur solubility of the test gas based on the amount of elemental sulfur deposited in the third conduit , characterized in that the method comprises saturating the test gas with water before flowing it into the first conduit. flowing the test gas into a first conduit , wherein the first conduit is packed with elemental sulfur, and is maintained at a first temperature that is sufficient to result in the uptake of elemental sulfur by the test gas in excess of the natural equilibrium solubility level of elemental sulfur in the test gas at the test temperature; introducing the test gas containing elemental sulfur into a second conduit , the second conduit being in fluid communication with the first conduit and maintained at a second temperature sufficient to lower the temperature of the test gas to a temperature that is equal to the test temperature, whereby the amount of elemental sulfur in the test gas is reduced to its natural equilibrium solubility level in the test gas at the test temperature; flowing the test gas into a third conduit that is in fluid communication with the second conduit , wherein at least a portion of the third conduit is maintained at a third temperature sufficient to result in deposition of the elemental sulfur from the test gas into a portion of the third conduit ; and calculating the sulfur solubility of the test gas based on the amount of elemental sulfur deposited in the third conduit , characterized in that the method comprises saturating the test gas with water before flowing it into the first conduit.
Sensor system (S) for determining physical variables of switchgear, having - a sensor terminal designed for connection to the switchgear and within which there are arranged - a humidity sensor and - a pressure sensor and - a light sensor for recording light flashes. - a sensor terminal designed for connection to the switchgear and within which there are arranged - a humidity sensor and - a pressure sensor and - a light sensor for recording light flashes.