mhurhangee/patent-ind-claim-en huggingface dataset:
An air-gas mixture burning appliance , comprising: a burning unit for burning a combustible air-gas mixture ; an air-gas mixing unit that is arranged upstream of the burning unit and is adapted for mixing of air and gas to form the combustible air-gas mixture ; a gas valve that is arranged upstream of the air-gas mixing unit and is adapted for regulating a flow of the gas to the air-gas mixing unit ; a flame detector for sensing a presence of a flame in the burning unit ; and a controller that is adapted for determining a variable ignition safety time for an ignition phase of the burning unit by selecting from at least two different durations of time, the ignition safety time being the maximum allowed opening time of the gas valve without a flame being detected, wherein the controller determines the variable ignition safety time as an anticipated maximum duration of time that elapses between an opening of the gas valve and a closing of the gas valve for avoiding a hazardous accumulation of the combustible air-gas mixture in the burning unit ; and wherein the controller directs the gas valve to shut off if, during the ignition phase of the burning unit , the gas valve is open and the flame detector fails to sense a flame in the burning unit during the variable ignition safety time. a burning unit for burning a combustible air-gas mixture ; an air-gas mixing unit that is arranged upstream of the burning unit and is adapted for mixing of air and gas to form the combustible air-gas mixture ; a gas valve that is arranged upstream of the air-gas mixing unit and is adapted for regulating a flow of the gas to the air-gas mixing unit ; a flame detector for sensing a presence of a flame in the burning unit ; and a controller that is adapted for determining a variable ignition safety time for an ignition phase of the burning unit by selecting from at least two different durations of time, the ignition safety time being the maximum allowed opening time of the gas valve without a flame being detected, wherein the controller determines the variable ignition safety time as an anticipated maximum duration of time that elapses between an opening of the gas valve and a closing of the gas valve for avoiding a hazardous accumulation of the combustible air-gas mixture in the burning unit ; and wherein the controller directs the gas valve to shut off if, during the ignition phase of the burning unit , the gas valve is open and the flame detector fails to sense a flame in the burning unit during the variable ignition safety time.
An anti-sprain shock-absorbing balance air-cushion shoe, comprising a shoe insert and a sole , wherein the air-cushion shoe further comprises two airbags communicating with each other, two airbag rooms are formed in the upper surface of the sole and used to contain the two airbags respectively, the two airbag rooms are distributed in the sole along the left-to-right direction, the combination of the shoe insert and the sole fixes the two airbags in the two airbag rooms respectively, and the two airbag rooms are stretchable and compressible, wherein the two airbags are communicated through a connecting tube , the two airbags and the connecting tube which communicates the two airbags constitute a row of shock-absorbing system , characterized in that there are multiple rows of the shock-absorbing system which are only arranged at the heel part of the sole .
A method for operating a chemical plant, wherein the chemical plant has a steam turbine with a shaft and with a first pressure turbine stage and a second pressure turbine stage , which first pressure turbine stage and second pressure turbine stage are each disposed on the shaft and connected in series in terms of the steam process, wherein steam for driving the steam turbine is obtained from a reactor plant , which reactor plant produces a hydrogen-containing substance from a carbon-containing energy-carrier flow , wherein the steam is heated in an overheating step prior to being supplied to the second pressure turbine stage , wherein the steam turbine has a third pressure turbine stage which is disposed on the shaft and which is connected between the first pressure turbine stage and the second pressure turbine stage in terms of the steam process, and wherein the steam passes through the overheating step after exiting the third pressure turbine stage , characterized in that the steam is heated to a temperature above the saturation temperature, and that the reactor plant produces methanol.
A hydroprocessing catalyst for treating heavy hydrocarbon feedstocks, wherein said catalyst comprises: a calcined particle comprising a co-mulled mixture made by co-mulling inorganic oxide powder or powders, solution or solutions containing molybdenum and Group VIII metals and optionally water, acid and flocculating agent, and then forming said co-mulled mixture into a particle that is calcined at a temperature above 621 °C to thereby provide said calcined particle, said calcined particles having: a. a total surface area of 240 to 360 m 2 /g as determined by the nitrogen BET method; b. a total pore volume of 0.5 to 0.9 cc/g; and c. a pore volume distribution such that greater than 60% of pore volume are in pores present as micropores of diameter between 55 and 115 Å, less than 0.12 cc/g of pore volume are in pores present as pores of diameter greater than 160 Å, greater than 5% of the total pore volume is in pores of diameter greater than 210 Å and less than 10% of pore volume are in pores present as macropores of diameters greater than 250 Å, using for pore volume determination the mercury intrusion method as measured between atmospheric pressure and a pressure of about 414 MPa (60,000 psia); wherein said calcined particle has a shape comprising a first end, a second end and a wall disposed between said ends, said wall comprising 3 lobes formed in the length of the wall; and wherein each calcined particle has an outer circle diameter of D O , an inner circle diameter of D I , and a height of H; the ratio of D O to D I is between 1.5 to 3.0; the ratio of H to D O is between 1 to 4; and the outer circle diameter D O is between 0.75 and 2 millimeters. a. a total surface area of 240 to 360 m 2 /g as determined by the nitrogen BET method; b. a total pore volume of 0.5 to 0.9 cc/g; and c. a pore volume distribution such that greater than 60% of pore volume are in pores present as micropores of diameter between 55 and 115 Å, less than 0.12 cc/g of pore volume are in pores present as pores of diameter greater than 160 Å, greater than 5% of the total pore volume is in pores of diameter greater than 210 Å and less than 10% of pore volume are in pores present as macropores of diameters greater than 250 Å, using for pore volume determination the mercury intrusion method as measured between atmospheric pressure and a pressure of about 414 MPa (60,000 psia); wherein said calcined particle has a shape comprising a first end, a second end and a wall disposed between said ends, said wall comprising 3 lobes formed in the length of the wall; and wherein each calcined particle has an outer circle diameter of D O , an inner circle diameter of D I , and a height of H; the ratio of D O to D I is between 1.5 to 3.0; the ratio of H to D O is between 1 to 4; and the outer circle diameter D O is between 0.75 and 2 millimeters.
An illumination system for illuminating a first biologic substance (S 1 ) and a second biologic substance (S 2 ), comprising: a first light output device capable of outputting polychromatic first light (L 1 ), a second light output device capable of outputting polychromatic second light (L 2 ) having different spectra compared to the first light, characterised in that the first light output device and the second light output device are selected such that (i) a first apparent color results when the first light is scattered from the first biologic substance and a second apparent color results when the second light is scattered from the first biologic substance, the first apparent color and the second apparent color being substantially the same as one another and (ii) a third apparent color results when the first light is scattered from the second biologic substance and a fourth apparent color results when the second light is scattered from the second biologic substance, the third apparent color and the fourth apparent color being substantially different than one another; and means for temporally modulating amounts of the first light and amounts of the second light in a light output from the system. a first light output device capable of outputting polychromatic first light (L 1 ), a second light output device capable of outputting polychromatic second light (L 2 ) having different spectra compared to the first light, characterised in that the first light output device and the second light output device are selected such that (i) a first apparent color results when the first light is scattered from the first biologic substance and a second apparent color results when the second light is scattered from the first biologic substance, the first apparent color and the second apparent color being substantially the same as one another and (ii) a third apparent color results when the first light is scattered from the second biologic substance and a fourth apparent color results when the second light is scattered from the second biologic substance, the third apparent color and the fourth apparent color being substantially different than one another; and means for temporally modulating amounts of the first light and amounts of the second light in a light output from the system.
A process for generating germanium-68, the process comprising: bombarding a target body including gallium, wherein the bombardment of the target body produces germanium-68 within the target body; stripping the bombarded target body with an acidic mixture to create a stripped solution comprising gallium and germanium-68; and characterised by precipitating gallium and germanium-68 from a precipitation solution to separate gallium and germanium-68 from impurity metals in the precipitation solution. bombarding a target body including gallium, wherein the bombardment of the target body produces germanium-68 within the target body; stripping the bombarded target body with an acidic mixture to create a stripped solution comprising gallium and germanium-68; and
A pixel structure, comprising: a metallic ground plane; a substrate unit cell, wherein the substrate unit cell is located on the metallic ground plane; a nano antenna unit, wherein the nano antenna unit is located on the substrate unit cell, the nano antenna unit comprises one or more nano antennas, each of the one or more nano antennas corresponds to one optical band, each nano antenna comprises two parts, the two parts are arranged in a bow-tie shape and are parallel to the substrate unit cell, a nano gap is formed between the two parts, the two parts and the nano gap have a function of a metal-insulator-metal diode, each of the two parts is in a shape of a trapezoid and the trapezoids are arranged with shortest bases facing each other; and a packaging unit, wherein the packaging unit covers the nano antenna unit, wherein each of the two parts have different work functions. a metallic ground plane; a substrate unit cell, wherein the substrate unit cell is located on the metallic ground plane; a nano antenna unit, wherein the nano antenna unit is located on the substrate unit cell, the nano antenna unit comprises one or more nano antennas, each of the one or more nano antennas corresponds to one optical band, each nano antenna comprises two parts, the two parts are arranged in a bow-tie shape and are parallel to the substrate unit cell, a nano gap is formed between the two parts, the two parts and the nano gap have a function of a metal-insulator-metal diode, each of the two parts is in a shape of a trapezoid and the trapezoids are arranged with shortest bases facing each other; and a packaging unit, wherein the packaging unit covers the nano antenna unit, wherein each of the two parts have different work functions.
Process for the preparation of infusions or teas comprising a support consisting of whole plants or fragments thereof, and one or more active principle(s) adsorbed on the surface of said support, characterized in that it comprises the following steps: a) in a first container, mix gum arabic with water and ethanol, b) in a second container, mix whole plants or fragments thereof with one or more active principle(s), c) add the mixture obtained in step a) to the mixture obtained in step b), and d) dry the mixture obtained in step c). a) in a first container, mix gum arabic with water and ethanol, b) in a second container, mix whole plants or fragments thereof with one or more active principle(s), c) add the mixture obtained in step a) to the mixture obtained in step b), and d) dry the mixture obtained in step c).
A method comprising: emitting light from an eye tracking device ; capturing one or more images with the eye tracking device of an area illuminated by said emitting the light; determining one or more gaze characteristics from analysis of the images based on eye illuminations within the images from said emitting the light; analyzing the images to detect a pre-defined change in lighting conditions in the images; and triggering a change of a position of a source of the light upon detection of the pre-defined change in the light conditions, characterized in that the pre-defined change is an occurrence of glare which interferes with image capture of the eye illuminations. emitting light from an eye tracking device ; capturing one or more images with the eye tracking device of an area illuminated by said emitting the light; determining one or more gaze characteristics from analysis of the images based on eye illuminations within the images from said emitting the light; analyzing the images to detect a pre-defined change in lighting conditions in the images; and triggering a change of a position of a source of the light upon detection of the pre-defined change in the light conditions, characterized in that the pre-defined change is an occurrence of glare which interferes with image capture of the eye illuminations.
Trolley for an apparatus for the washing and disinfection of robotic surgical instruments (R), said trolley comprising at least one manifold equipped with flexible washing tubes provided with end nozzles and at least one support with seats for said robotic surgical instruments (R) which is provided with a system for the simultaneous locking of all instruments (R) placed in said seats, said locking system comprising a series of brackets equal in number to the instruments (R) and provided each with one or more through holes in which one or more of said end nozzles are inserted before entering the irrigation port(s) of one of the instruments (R), as well as a locking unit mounted in a rotatable way in seats formed in the ends of said support and configured to engage said brackets when they are placed at the top of the instruments (R) and the nozzles are inserted in said irrigation port(s), characterized in that said locking unit comprises an engagement plate which is mounted on the support by means of end arms each provided on a side with a first pin and a second pin engaging respectively a linear slot and a substantially J-shaped guide formed in said ends of the support , both said linear slot and a terminal short side of said guide extending in planes parallel or substantially parallel to the plane (P) defined by the brackets and spaced from it in such a way that said engagement plate is in abutment on the brackets in an almost parallel condition and extends beyond their centerline when said second pins are in abutment against the end of the guide defined by said terminal short side .
A method performed by a first access point, AP, the method comprising: detecting a communication between a client device and a second AP , the communication indicative that the client device is associated with the second AP ; determining that the client device has previously associated with a network administered by the first AP ; determining whether at least one criterion for steering the client device from the second AP to the first AP is satisfied, in response to said determining that the client device has previously associated with the network administered by the first AP ; and transmitting a disassociation message from the first AP to the client device in response to said determining that the at least one criterion is satisfied, wherein the disassociation message does not identify the first AP but instead identifies the second AP as the sender. detecting a communication between a client device and a second AP , the communication indicative that the client device is associated with the second AP ; determining that the client device has previously associated with a network administered by the first AP ; determining whether at least one criterion for steering the client device from the second AP to the first AP is satisfied, in response to said determining that the client device has previously associated with the network administered by the first AP ; and transmitting a disassociation message from the first AP to the client device in response to said determining that the at least one criterion is satisfied, wherein the disassociation message does not identify the first AP but instead identifies the second AP as the sender.
A nozzle cap for a fire hydrant, the nozzle cap comprising: a cap body , the cap body defining a cap axis extending from a first body end of the cap body to a second body end of the cap body , the cap body defining a threaded bore extending into the cap body from the second body end to an inner wall of the cap body with internal threading arranged to engage a nozzle of a said fire hydrant, wherein the cap axis defines an axis of rotation around which the internal threading of the cap body rotates; and a vibration sensor attached to the cap body , the vibration sensor defining a sensor axis extending from a first sensor end of the vibration sensor to a second sensor end of the vibration sensor , the vibration sensor comprising a fastener with a threaded end , the threaded end defining the first sensor end of the vibration sensor , the second sensor end being defined by calibration masses of the vibration sensor , wherein the second sensor end is opposite from the first sensor end , wherein the threaded end is arranged to threadedly engage a threaded hole defined by a circumferential wall of the cap body so to attach the vibration sensor to the cap body , wherein the sensor axis extends through the fastener and the vibration sensor from the first sensor end to the second sensor end , wherein the sensor axis is aligned perpendicular to the cap axis . a cap body , the cap body defining a cap axis extending from a first body end of the cap body to a second body end of the cap body , the cap body defining a threaded bore extending into the cap body from the second body end to an inner wall of the cap body with internal threading arranged to engage a nozzle of a said fire hydrant, wherein the cap axis defines an axis of rotation around which the internal threading of the cap body rotates; and a vibration sensor attached to the cap body , the vibration sensor defining a sensor axis extending from a first sensor end of the vibration sensor to a second sensor end of the vibration sensor , the vibration sensor comprising a fastener with a threaded end , the threaded end defining the first sensor end of the vibration sensor , the second sensor end being defined by calibration masses of the vibration sensor , wherein the second sensor end is opposite from the first sensor end , wherein the threaded end is arranged to threadedly engage a threaded hole defined by a circumferential wall of the cap body so to attach the vibration sensor to the cap body , wherein the sensor axis extends through the fastener and the vibration sensor from the first sensor end to the second sensor end , wherein the sensor axis is aligned perpendicular to the cap axis .
A method performed by a Service Communication Proxy, SCP, for indirect communication in a core network of a wireless communication system with a Transport Layer Security, TLS, association established between the SCP and a Network Function, NF, service consumer , the method comprising: receiving , from the NF service consumer , a Hypertext Transfer Protocol, HTTP, GET request that is intended for a first NF service producer instance (604-1), the HTTP request using a Fully Qualified Domain Name, FQDN, of the SCP and having a path that includes a cache key set to a first value associated with the first NF service producer instance (604-1); determining whether there is a cache hit for the HTTP request in a cache system of the SCP based, at least in part, on the received cache key parameter; obtaining a HTTP response for the HTTP request from a cache system of the SCP when there is a cache hit for the HTTP request in the cache system, otherwise: obtaining the HTTP response for the HTTP request from the first NF service producer instance (604-1) by; a) sending the HTTP request to the first NF service producer instance (604-1) with or without the cache key; and b) receiving the HTTP response from the first NF service producer instance (604-1); and c) caching the HTTP response in the cache system of the SCP using the first value of the cache key that is associated with the first NF service producer instance (604-1); and then sending the obtained HTTP response to the NF service consumer . receiving , from the NF service consumer , a Hypertext Transfer Protocol, HTTP, GET request that is intended for a first NF service producer instance (604-1), the HTTP request using a Fully Qualified Domain Name, FQDN, of the SCP and having a path that includes a cache key set to a first value associated with the first NF service producer instance (604-1); determining whether there is a cache hit for the HTTP request in a cache system of the SCP based, at least in part, on the received cache key parameter; obtaining a HTTP response for the HTTP request from a cache system of the SCP when there is a cache hit for the HTTP request in the cache system, otherwise: obtaining the HTTP response for the HTTP request from the first NF service producer instance (604-1) by; a) sending the HTTP request to the first NF service producer instance (604-1) with or without the cache key; and b) receiving the HTTP response from the first NF service producer instance (604-1); and c) caching the HTTP response in the cache system of the SCP using the first value of the cache key that is associated with the first NF service producer instance (604-1); and then a) sending the HTTP request to the first NF service producer instance (604-1) with or without the cache key; and b) receiving the HTTP response from the first NF service producer instance (604-1); and c) caching the HTTP response in the cache system of the SCP using the first value of the cache key that is associated with the first NF service producer instance (604-1); and then sending the obtained HTTP response to the NF service consumer .