mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming an object made of a polymeric material, wherein the polymeric material has a melting temperature (Tf), the method comprising the following steps: melting the polymeric material; cooling the polymeric material below the melting temperature (Tf); extruding the polymeric material into a tubular shaped body (H); inserting the tubular body (H) into a mould having an internal cavity; closing off the tubular body (H) at a first end; blowing air into the tubular body (H) through a second end in order that the tubular body (H) adheres to the internal cavity of the mould . melting the polymeric material; cooling the polymeric material below the melting temperature (Tf); extruding the polymeric material into a tubular shaped body (H); inserting the tubular body (H) into a mould having an internal cavity; closing off the tubular body (H) at a first end; blowing air into the tubular body (H) through a second end in order that the tubular body (H) adheres to the internal cavity of the mould .
A label for securing a bunch of elongate products, wherein the label is substantially rectangular comprising two discrete adhesive areas, such that when the label is wrapped around the elongate products the two adhesive areas meet to secure the label in a loop having an adhesive-free area forming the loop around the elongate products and a flat section protruding therefrom, and wherein the label is substantially rectangular and tapers towards a first end having a width less than a second substantially rectangular end portion and wherein adhesive is applied in a substantially triangular shape to at least a first portion of the first tapered end of the label and adhesive is applied to a second longitudinal strip of a portion of the substantially rectangular second end, characterised in that : i) the first end of the label comprises two adhesive spots at the two corners of the first end of the label and the second end of the label comprises two adhesive spots at the two corners of the second end of the label; or ii) the label comprises a truncated circular area at the second end of the label and further comprises adhesive spots applied to the corners of the first end and to a portion of the tip of the opposing end of the label. i) the first end of the label comprises two adhesive spots at the two corners of the first end of the label and the second end of the label comprises two adhesive spots at the two corners of the second end of the label; or ii) the label comprises a truncated circular area at the second end of the label and further comprises adhesive spots applied to the corners of the first end and to a portion of the tip of the opposing end of the label.
A device for the recording by sensors of at least one human vital parameter, with a carrier , which is suitably shaped and dimensioned to be placed in a removable manner at least partially in the human external auditory canal and on which at least one sensor (3-8) for recording a vital parameter is applied wherein the carrier is in the form of a hollow cylinder, outwardly delimits a continuously open hollow channel radially to a cylinder axis assigned to the hollow cylinder, and comprises a hollow cylinder outer wall area which in the state of placement of the carrier at least partially in the human auditory canal is configured to come into contact therewith, characterised in that the carrier is a surface substrate which through winding around a winding axis can be transformed in the form of the hollow cylinder, and in that the surface substrate has a material-inherent shape-retaining stiffness so that the surface substrate transformed by winding into the form of a hollow cylinder has two surface substrate regions lying opposite each other which due to winding and without external mechanical force, loosely overlap each other.
A heating, ventilation, and/or air conditioning, HVAC, system , comprising: - a compressor comprising an impeller and at least one of pre-rotation vanes and a variable geometry diffuser , wherein the impeller is configured to rotate and drive a working fluid through a working fluid circuit of the HVAC system in an active operating mode of the HVAC system ; and - a controller comprising a processor , wherein the controller , in response to receiving an input indicative of a transition of the HVAC system to operate in an inactive operating mode, is configured to: - suspend the active operating mode of the HVAC system by interrupting a supply of power to the compressor ; - adjust the pre-rotation vanes of the compressor , the variable geometry diffuser of the compressor , or both to a first position to enable a backflow of the working fluid through the compressor for a first interval of time; and - after the first interval of time has elapsed, adjust the pre-rotation vanes of the compressor , the variable geometry diffuser of the compressor , or both to a second position to block the backflow of the working fluid through the compressor . - a compressor comprising an impeller and at least one of pre-rotation vanes and a variable geometry diffuser , wherein the impeller is configured to rotate and drive a working fluid through a working fluid circuit of the HVAC system in an active operating mode of the HVAC system ; and - a controller comprising a processor , wherein the controller , in response to receiving an input indicative of a transition of the HVAC system to operate in an inactive operating mode, is configured to: - suspend the active operating mode of the HVAC system by interrupting a supply of power to the compressor ; - adjust the pre-rotation vanes of the compressor , the variable geometry diffuser of the compressor , or both to a first position to enable a backflow of the working fluid through the compressor for a first interval of time; and - after the first interval of time has elapsed, adjust the pre-rotation vanes of the compressor , the variable geometry diffuser of the compressor , or both to a second position to block the backflow of the working fluid through the compressor . - suspend the active operating mode of the HVAC system by interrupting a supply of power to the compressor ; - adjust the pre-rotation vanes of the compressor , the variable geometry diffuser of the compressor , or both to a first position to enable a backflow of the working fluid through the compressor for a first interval of time; and - after the first interval of time has elapsed, adjust the pre-rotation vanes of the compressor , the variable geometry diffuser of the compressor , or both to a second position to block the backflow of the working fluid through the compressor .
A method for preparing inositol, comprising: using starch or starch derivative as substrate, adding α-glucan phosphorylase, phosphoglucomutase, inositol-3-phophate synthase and inositol monophosphatase to establish a multi-enzyme reaction system and perform an enzyme-catalyzed reaction; and separating and purifying reaction product to obtain inositol, wherein the enzyme-catalyzed reaction is performed at 40-100°C for 10 to 100 hours. using starch or starch derivative as substrate, adding α-glucan phosphorylase, phosphoglucomutase, inositol-3-phophate synthase and inositol monophosphatase to establish a multi-enzyme reaction system and perform an enzyme-catalyzed reaction; and separating and purifying reaction product to obtain inositol,
A whispering gallery mode inertial sensor comprising: a whispering gallery mode resonator ; an evanescent coupler configured to couple with an evanescent field of the whispering gallery mode resonator so that light is transmitted to and received from the whispering galley mode resonator by the evanescent coupler ; a displacement sensor configured to determine a displacement of the whispering gallery mode resonator according to the light received from the whispering gallery mode resonator by the evanescent coupler ; a controller configured to determine an acceleration and/or rate of rotation experienced by the whispering gallery mode resonator based on the displacement of the whispering gallery mode resonator , characterized in that the controller is further configured to apply a restoring force to the whispering gallery mode resonator in a closed feedback loop based on the displacement of the whispering gallery mode resonator in order to maintain a predetermined mechanical state of the whispering gallery mode resonator ; and in that the whispering gallery mode inertial sensor further comprises a timing sensor configured to determine a timing signal based on an optical frequency comb produced by the whispering gallery mode resonator . a whispering gallery mode resonator ; an evanescent coupler configured to couple with an evanescent field of the whispering gallery mode resonator so that light is transmitted to and received from the whispering galley mode resonator by the evanescent coupler ; a displacement sensor configured to determine a displacement of the whispering gallery mode resonator according to the light received from the whispering gallery mode resonator by the evanescent coupler ; a controller configured to determine an acceleration and/or rate of rotation experienced by the whispering gallery mode resonator based on the displacement of the whispering gallery mode resonator , characterized in that the controller is further configured to apply a restoring force to the whispering gallery mode resonator in a closed feedback loop based on the displacement of the whispering gallery mode resonator in order to maintain a predetermined mechanical state of the whispering gallery mode resonator ; and in that the whispering gallery mode inertial sensor further comprises a timing sensor configured to determine a timing signal based on an optical frequency comb produced by the whispering gallery mode resonator .
Device for maintaining lawns, which can be arranged on a mobile unit and comprises a digital camera which can be directed at the lawn, a control device and at least one tool which can be actuated by the control device and can be lowered by a motor to the lawn, the images from the digital camera being fed to an algorithm implemented in the control device for carrying out object recognition, so that the control device lowers the tool when an object is detected in order to carry out a work step on the object, characterized in that the tool is arranged in a detection range of the camera when in the lowered state, wherein a constant image coordinate of the camera image is assigned to a contact point of the tool with the lawn.
A bus coupler comprising: a first input configured for coupling to a first line of a bus; a second input configured for coupling to a second line of the bus wherein the bus coupler is configured to receive an input signal from the bus on the first input; and an output configured to have an output voltage of the bus coupler formed at the output; a first voltage control circuit having a first current source coupled to receive the input signal, the first current source configured to form a first current and couple the first current to the output, the first voltage control circuit configured to control a value of the first current to regulate the output voltage to a first value; characterised in that the bus coupler further comprises: a second voltage control circuit configured to selectively conduct a second current from the first current source away from the output to regulate a voltage drop across the first current source to a value that is greater than a threshold voltage of the first current source. a first input configured for coupling to a first line of a bus; a second input configured for coupling to a second line of the bus wherein the bus coupler is configured to receive an input signal from the bus on the first input; and an output configured to have an output voltage of the bus coupler formed at the output; a first voltage control circuit having a first current source coupled to receive the input signal, the first current source configured to form a first current and couple the first current to the output, the first voltage control circuit configured to control a value of the first current to regulate the output voltage to a first value; characterised in that the bus coupler further comprises: a second voltage control circuit configured to selectively conduct a second current from the first current source away from the output to regulate a voltage drop across the first current source to a value that is greater than a threshold voltage of the first current source.
A composition comprising tetrahydrocannabinol (THC) and fluvoxamine, for use in treating a subject with acute respiratory failure (ARF) and/or acute respiratory distress syndrome (ARDS), optionally caused by cytokine storm.
A main unit body for forming a toy block, said main unit body being a tetradecahedron having six square surfaces and eight regular hexagon surfaces , wherein the six square surfaces are averagely divided into three groups, two square surfaces in a group of the three groups are parallel, the eight regular hexagon surfaces are averagely divided into four groups, two regular hexagon surfaces in a group of the four groups are parallel, characterized in that a column head is located on at least one of the square surfaces on the main unit body , wherein a slot is located on a same axis of another square surface , and wherein the column head of the main unit body is configured to be mutually coordinated with the slot of another main unit body , wherein the slot is a gradual shrinkage hole with a wider dimension towards the outside and a narrower dimension towards the inside of the body, wherein the column head comprises a square column , a frustum and a cylinder connected to each other such that one end of the square column is vertically connected with the square surface , the other end of the square column is connected with the cylinder through the frustum , the side length of the square column is greater than the diameter of the cylinder .
Front shell arrangement (4a-e; 14a-j; 24a-e) for securing to a building frame of a composite window , wherein the front shell arrangement (4a-e; 14a-j; 24a-e) possesses a front shell (41a-e; 141a-j; 241a-e) that in the assembled state covers a spar of the building frame and is preferably made of aluminium, characterised in that a guide rail (42a-e; 142a-j; 242a-e) for a raisable and lowerable curtain, such as a roller shutter, a venetian blind or the like, is integrated in the front shell arrangement (4a-e; 14a-j; 24a-e), and that the guide rail (142a-j) is connected to the front shell (241a-e) by a snap-on connector or by a retainer .
A lithium-ion secondary battery comprising: a current collector ; and a porous positive electrode active material layer which is retained by the current collector and which contains positive electrode active material particles , an electrically conductive material , and a binder , wherein the positive electrode active material particles have: a shell portion constituted by a lithium transition metal oxide; a hollow portion formed inside the shell portion ; and a through hole that penetrates the shell portion , characterized in that in the positive electrode active material layer on average, the hollow portion accounts for 45% or higher of an apparent sectional area of the positive electrode active material particles occupied by the shell portion , the hollow portion , and the through hole , and when a thickness of the shell portion at any position on an inner surface of the shell portion on any cross section of the positive electrode active material layer is defined as a shortest distance from the any position on the inner surface of the shell portion to an outer surface of the shell portion , a thickness of the shell portion in the positive electrode active material layer on average is 2.2 μm or less. a current collector ; and a porous positive electrode active material layer which is retained by the current collector and which contains positive electrode active material particles , an electrically conductive material , and a binder , wherein the positive electrode active material particles have: a shell portion constituted by a lithium transition metal oxide; a hollow portion formed inside the shell portion ; and a through hole that penetrates the shell portion , a shell portion constituted by a lithium transition metal oxide; a hollow portion formed inside the shell portion ; and a through hole that penetrates the shell portion , characterized in that in the positive electrode active material layer on average, the hollow portion accounts for 45% or higher of an apparent sectional area of the positive electrode active material particles occupied by the shell portion , the hollow portion , and the through hole , and when a thickness of the shell portion at any position on an inner surface of the shell portion on any cross section of the positive electrode active material layer is defined as a shortest distance from the any position on the inner surface of the shell portion to an outer surface of the shell portion , a thickness of the shell portion in the positive electrode active material layer on average is 2.2 μm or less.
A method of manufacturing a suspension of nanoparticles of potassium salt or magnesium salt, characterised in that , a water solution of potassium salt or magnesium salt, a water solution of lecithin, and a solution of dispersing agents in oil are prepared, then under ultrasound conditions a water solution of lecithin is added to a solution of at least one dispersing agent in oil, and then a solution of potassium salt or magnesium salt and ethanol are added concurrently to the obtained mixture.
A pressure sensor (102; 202; 600; 700), comprising: a probe body (212; 300; 400) comprising a pressure deflectable diaphragm formed of a first material having a first coefficient of thermal expansion, the pressure deflectable diaphragm including a first surface at least partially defining a first portion of a capacitor; a non-deformable component formed of a second material having a second coefficient of thermal expansion, the non-deformable component including a second surface spaced from the first surface, the second surface at least partially defining a second portion of the capacitor; and an intermediate component disposed at a peripheral region of the second surface of the non-deformable component , the intermediate component isolating the pressure deflectable diaphragm and the non-deformable component from each other, the intermediate component being formed of a third material having a third coefficient of thermal expansion; wherein the third coefficient of thermal expansion is less than the first coefficient of thermal expansion, characterized in that the intermediate component is formed as a coating on at least one of the pressure deflectable diaphragm or the non-deformable component . a probe body (212; 300; 400) comprising a pressure deflectable diaphragm formed of a first material having a first coefficient of thermal expansion, the pressure deflectable diaphragm including a first surface at least partially defining a first portion of a capacitor; a non-deformable component formed of a second material having a second coefficient of thermal expansion, the non-deformable component including a second surface spaced from the first surface, the second surface at least partially defining a second portion of the capacitor; and an intermediate component disposed at a peripheral region of the second surface of the non-deformable component , the intermediate component isolating the pressure deflectable diaphragm and the non-deformable component from each other, the intermediate component being formed of a third material having a third coefficient of thermal expansion; wherein the third coefficient of thermal expansion is less than the first coefficient of thermal expansion, characterized in that the intermediate component is formed as a coating on at least one of the pressure deflectable diaphragm or the non-deformable component .
Basket for use with an orchid plant having aerial roots , the basket having slots or other openings arranged for passing protruding plant parts, including the plant's roots and/or leaves and/or any other protruding or outgrowing plant parts; wherein the basket is constituted by two separate basket parts which are arranged to be interconnected to one another at an interconnection interface , thus enabling to insert or introduce said protruding plant parts into the basket in the basket parts' separated state, and to hold the protruding plant parts in the basket in the basket parts' interconnected state; wherein the basket in interconnected state comprises a basket bottom wall and four basket side walls ; wherein the first basket part comprises the basket bottom wall and the first, second and third basket side walls , wherein the second basket part comprises the fourth side wall , wherein the bottom wall of the first basket part and the first and the third side wall of the first basket part comprises open slots , which slots are open-ended at the side of said interconnection interface in the separate state of the basket, and which slots are closed by the second basket part in the interconnected state of the basket.
A method for obtaining a transmitter test parameter, comprising: performing waveform sampling on an optical signal sent by a transmitter, to obtain a sampled electrical signal; obtaining a first noise amount corresponding to the sampled electrical signal based on a preset initial noise ratio parameter and a level amplitude of the sampled electrical signal, wherein the level amplitude of the sampled electrical signal is greater than a minimum level and less than a maximum level, the initial noise ratio parameter is a ratio of a maximum noise amount to a minimum noise amount, the maximum noise amount is a noise amount corresponding to an electrical signal at the maximum level, the minimum noise amount is a noise amount corresponding to an electrical signal at the minimum level, and the first noise amount is a noise amount that is greater than the minimum noise amount and less than the maximum noise amount; and obtaining a second noise amount corresponding to an ideal electrical signal based on the initial noise ratio parameter and a level amplitude of the ideal electrical signal, wherein the ideal electrical signal is determined based on an optical modulation amplitude of the sampled electrical signal, wherein the ideal electrical signal is a virtual signal that has a same optical modulation amplitude as the sampled electrical signal, and the level amplitude of the ideal electrical signal is the maximum level or the minimum level, wherein the first noise amount and the second noise amount are used to perform a consistency test on the transmitter. performing waveform sampling on an optical signal sent by a transmitter, to obtain a sampled electrical signal; obtaining a first noise amount corresponding to the sampled electrical signal based on a preset initial noise ratio parameter and a level amplitude of the sampled electrical signal, wherein the level amplitude of the sampled electrical signal is greater than a minimum level and less than a maximum level, the initial noise ratio parameter is a ratio of a maximum noise amount to a minimum noise amount, the maximum noise amount is a noise amount corresponding to an electrical signal at the maximum level, the minimum noise amount is a noise amount corresponding to an electrical signal at the minimum level, and the first noise amount is a noise amount that is greater than the minimum noise amount and less than the maximum noise amount; and obtaining a second noise amount corresponding to an ideal electrical signal based on the initial noise ratio parameter and a level amplitude of the ideal electrical signal, wherein the ideal electrical signal is determined based on an optical modulation amplitude of the sampled electrical signal, wherein the ideal electrical signal is a virtual signal that has a same optical modulation amplitude as the sampled electrical signal, and the level amplitude of the ideal electrical signal is the maximum level or the minimum level, wherein the first noise amount and the second noise amount are used to perform a consistency test on the transmitter.