mhurhangee/patent-ind-claim-en huggingface dataset:
Weapon system comprising at least two high-energy laser (HEL) effectors (5.1, 5.2, 5.3), each having at least one beam guide system (2.1, 2.2, 2.3), the at least two HEL effectors (5.1, 5.2, 5.3) comprising at least one jointly usable pump source , at least one optical switching unit being provided, the at least one optical switching unit being designed such that the at least one beam guide system (2.1, 2.2, 2.3) can be connected to the at least one jointly usable pump source via the at least one optical switching unit , characterized in that either a) a jointly used master oscillator which is arranged by the at least two HEL effectors (5.1, 5.2, 5.3) separately from the pump source is provided, a particular HEL effector (5.1, 5.2, 5.3) comprising an amplifier (.1, .2, .3), and the at least one optical switching unit being arranged between an output of the at least one jointly usable pump source and an input of the particular amplifier (.1, .2, .3) of the particular HEL effector (5.1, 5.2, 5.3), or b) a particular HEL effector (5.1, 5.2, 5.3) comprises a master oscillator and power amplifier (MOPA) (21.1, 21.2, 21.3), and the at least one optical switching unit is arranged between an output of the at least one jointly usable pump source and an input of a particular amplifier of the particular MOPA (21.1, 21.2, 21.3) of the particular HEL effector (5.1, 5.2, 5.3) . a) a jointly used master oscillator which is arranged by the at least two HEL effectors (5.1, 5.2, 5.3) separately from the pump source is provided, a particular HEL effector (5.1, 5.2, 5.3) comprising an amplifier (.1, .2, .3), and the at least one optical switching unit being arranged between an output of the at least one jointly usable pump source and an input of the particular amplifier (.1, .2, .3) of the particular HEL effector (5.1, 5.2, 5.3), or b) a particular HEL effector (5.1, 5.2, 5.3) comprises a master oscillator and power amplifier (MOPA) (21.1, 21.2, 21.3), and the at least one optical switching unit is arranged between an output of the at least one jointly usable pump source and an input of a particular amplifier of the particular MOPA (21.1, 21.2, 21.3) of the particular HEL effector (5.1, 5.2, 5.3) .
System for creating a presence profile (P) of persons in a detection area (B), wherein the device has: at least one sensor (S1, ..., S3) for detecting a presence of at least one person, resolved according to sub-areas (T1, ..., T3) of the detection area (B), and a data-processing device for generating and outputting at least one presence profile (P) for the detection area (B) on the basis of the presences of persons detected in the various sub-areas (T1, ..., T3), wherein the presence profile (P) indicates movement directions of the persons at a defined point in time, speeds of the movements of the persons in the detection area (B) and/or a number of the presences detected in the detection area (B) or in each sub-area (T1, ..., T3) over a defined time period; characterized in that the data-processing device is designed to compare the created presence profile with at least one stored presence profile, and to output a signal given a certain degree of agreement or deviation. at least one sensor (S1, ..., S3) for detecting a presence of at least one person, resolved according to sub-areas (T1, ..., T3) of the detection area (B), and a data-processing device for generating and outputting at least one presence profile (P) for the detection area (B) on the basis of the presences of persons detected in the various sub-areas (T1, ..., T3), wherein the presence profile (P) indicates movement directions of the persons at a defined point in time, speeds of the movements of the persons in the detection area (B) and/or a number of the presences detected in the detection area (B) or in each sub-area (T1, ..., T3) over a defined time period; characterized in that the data-processing device is designed to compare the created presence profile with at least one stored presence profile, and to output a signal given a certain degree of agreement or deviation.
A collar for a surgical access device , the collar comprising: an annular body laterally attachable to a cannula of the surgical access device ; and a spring coupled to the annular body about a tubular portion of said annular body, wherein the spring coupled to the annular body is movable between an uncompressed state and a compressed state, the spring being configured to manipulate the annular body between a first condition and a second condition to selectively fix the annular body at predetermined locations along the cannula or to laterally remove the annular body from the cannula while the cannula is supported within a patient's body; characterised in that said tubular portion includes first and second hook members that extend radially outward from an outer surface of the tubular portion , wherein the first and second hook members are disposed in mirrored relation, and each of the said hook members includes a divider wall and a hook leg that extends from the diver wall , wherein the first and second hook members are separated by a vertical slit in the annular body . an annular body laterally attachable to a cannula of the surgical access device ; and a spring coupled to the annular body about a tubular portion of said annular body, wherein the spring coupled to the annular body is movable between an uncompressed state and a compressed state, the spring being configured to manipulate the annular body between a first condition and a second condition to selectively fix the annular body at predetermined locations along the cannula or to laterally remove the annular body from the cannula while the cannula is supported within a patient's body;
An acoustical assembly comprising - an assembly housing , - a receiver module arranged within the assembly housing; - one or more spacers (603-606) being arranged between the assembly housing and the receiver module, the one or more spacers (603-606) forming a free-space region between the assembly housing and the receiver module, and - one or more microphone units being at least partly positioned in the free-space region between the assembly housing and the receiver module, wherein the one or more microphone units comprise a MEMS microphone unit comprising a MEMS microphone having a sound inlet and a signal processing circuit , wherein the one or more spacers (603-606) comprise one or more vibration isolating elements in order to vibration isolate the assembly housing from the receiver module, characterized in that said MEMS microphone unit is integrated with the assembly housing . - an assembly housing , - a receiver module arranged within the assembly housing; - one or more spacers (603-606) being arranged between the assembly housing and the receiver module, the one or more spacers (603-606) forming a free-space region between the assembly housing and the receiver module, and - one or more microphone units being at least partly positioned in the free-space region between the assembly housing and the receiver module, wherein the one or more microphone units comprise a MEMS microphone unit comprising a MEMS microphone having a sound inlet and a signal processing circuit , wherein the one or more spacers (603-606) comprise one or more vibration isolating elements in order to vibration isolate the assembly housing from the receiver module, characterized in that said MEMS microphone unit is integrated with the assembly housing . wherein the one or more spacers (603-606) comprise one or more vibration isolating elements in order to vibration isolate the assembly housing from the receiver module, characterized in that said MEMS microphone unit is integrated with the assembly housing .
A method for manufacturing a multilayer structure, comprising obtaining a substrate film for accommodating electronics , providing a number of conductive traces on a first side of the substrate film to establish a predetermined circuit design , establishing an opening in, and through, the thickness of the substrate film wherein the opening is dimensioned so as to match the dimensions of a flexible connector cable or wire in a predetermined feed-through position with minimized additional clearance , directing part of the connector cable or wire through the opening, wherein one end of the connector cable or wire is prior to, upon or after said directing attached to a predefined contact area on the first side of the substrate film, wherein the contact area connects the connector cable or wire electrically to the circuit design, the other end being located after said directing, at the latest, on the second side for electrically connecting to an external element , and molding thermoplastic material on said first side of the substrate film to substantially seal the circuit design between the plastic layer and the first side of the substrate film .
A method for the preparation of a sample comprising highly polarized nuclear spins, said method comprising: (i) providing a sample comprising an organic or inorganic material, containing H or OH groups or adsorbed water molecules, in the form of a powdery solid, in a sealed vessel having an initial pressure; (ii) generating unstable radicals in said sample by either (a) electrical ionization of the gas environment in said vessel, or (b) subjecting said sample to ionizing radiation with an energy not less than 25 eV, wherein said unstable radicals are fixed to the solid, so that their decay is slowed down; (iii) cooling said sample to a cryogenic temperature; and (iv) performing dynamic nuclear polarization (DNP) process on the cooled sample so as to transfer spin polarization from the electron spins to the nuclear spins, thereby obtaining said sample comprising highly polarized nuclear spins. (i) providing a sample comprising an organic or inorganic material, containing H or OH groups or adsorbed water molecules, in the form of a powdery solid, in a sealed vessel having an initial pressure; (ii) generating unstable radicals in said sample by either (a) electrical ionization of the gas environment in said vessel, or (b) subjecting said sample to ionizing radiation with an energy not less than 25 eV, wherein said unstable radicals are fixed to the solid, so that their decay is slowed down; (iii) cooling said sample to a cryogenic temperature; and (iv) performing dynamic nuclear polarization (DNP) process on the cooled sample so as to transfer spin polarization from the electron spins to the nuclear spins, thereby obtaining said sample comprising highly polarized nuclear spins.
Optical device (1, 1', 1", 1′′′) usable in a head-mounted display, the optical device comprising: - a light conducting element having a first refractive index which has an input zone adapted to be coupled to a light source and two first and second opposite main faces (4a and 4b) and which is configured to input and conduct by total internal reflections between said main faces a light received from said light source and to partially output the conducted light out of said light conducting element, - at least one wafer which comprises an internal surface facing a said first main face of said light conducting element, and - interposition means (10a, 10b, 10b', 10b") which are in contact with said first main face and said internal surface and which define therebetween a gap having a gap refractive index lower than said first refractive index and optically isolating said light conducting element, characterized in that said interposition means comprise a peripheral sealing arrangement (10a, 10b, 10b', 10b") which has a peripheral length and extends between and in sealing contact with a peripheral area of said internal surface and a zone of said first main face facing said peripheral area, at least one portion (4") of said sealing arrangement along said peripheral length being configured to exhibit a locally reduced optical coupling with said first main face compared to the remaining of said peripheral length, to preserve said internal reflections at said at least one portion inside said light conducting element. - a light conducting element having a first refractive index which has an input zone adapted to be coupled to a light source and two first and second opposite main faces (4a and 4b) and which is configured to input and conduct by total internal reflections between said main faces a light received from said light source and to partially output the conducted light out of said light conducting element, - at least one wafer which comprises an internal surface facing a said first main face of said light conducting element, and - interposition means (10a, 10b, 10b', 10b") which are in contact with said first main face and said internal surface and which define therebetween a gap having a gap refractive index lower than said first refractive index and optically isolating said light conducting element,
An induction heating monitoring apparatus comprising: a data collection circuit configured to collect induction heating data from a sensor , the data being associated with an induction heating operation performed using an induction heating power supply , the data collection circuit comprising a sensor interface configured to receive data from a sensor, and a sensor digitizer which digitizes the data; and a communication circuit comprising a transmitter circuit configured to transmit the digitized data to the induction heating power supply via one or more first conductors of a cable assembly ; the induction heating monitoring apparatus being characterised in that the one or more first conductors are electrically isolated from one or more second conductors configured to carry induction heating power, the one or more first conductors and the one or more second conductors contained within an outer jacket of the cable assembly ; and in that the induction heating monitoring apparatus further comprises first terminations configured to be coupled to the second one or more conductors and second terminations coupled to the first terminations to be coupled to at least one of an induction heating extension cable or an induction heating blanket. a data collection circuit configured to collect induction heating data from a sensor , the data being associated with an induction heating operation performed using an induction heating power supply , the data collection circuit comprising a sensor interface configured to receive data from a sensor, and a sensor digitizer which digitizes the data; and a communication circuit comprising a transmitter circuit configured to transmit the digitized data to the induction heating power supply via one or more first conductors of a cable assembly ; the induction heating monitoring apparatus being characterised in that the one or more first conductors are electrically isolated from one or more second conductors configured to carry induction heating power, the one or more first conductors and the one or more second conductors contained within an outer jacket of the cable assembly ; and in that the induction heating monitoring apparatus further comprises first terminations configured to be coupled to the second one or more conductors and second terminations coupled to the first terminations to be coupled to at least one of an induction heating extension cable or an induction heating blanket.
A process for preparing a homogenous frozen confection comprising: a) Mixing ingredients; b) Freezing and aerating the mixed ingredients to produce a base frozen confection, c) Feeding a free oil-containing viscous flavoring or other viscous, free oil-containing ingredient and the base frozen confection into a static mixer to produce the homogenous frozen confection flavored with a viscous, free oil-containing flavorant or other viscous, free oil-containing ingredient; wherein, the frozen confection comprises from 6-20 wt% of the free oil-containing viscous flavouring or other viscous free oil-containing ingredient and wherein the free oil-containing viscous flavouring or other viscous free oil-containing ingredient is selected from the group consisting of nut butters and coconut pastes. a) Mixing ingredients; b) Freezing and aerating the mixed ingredients to produce a base frozen confection, c) Feeding a free oil-containing viscous flavoring or other viscous, free oil-containing ingredient and the base frozen confection into a static mixer to produce the homogenous frozen confection flavored with a viscous, free oil-containing flavorant or other viscous, free oil-containing ingredient; wherein, the frozen confection comprises from 6-20 wt% of the free oil-containing viscous flavouring or other viscous free oil-containing ingredient and wherein the free oil-containing viscous flavouring or other viscous free oil-containing ingredient is selected from the group consisting of nut butters and coconut pastes.
A printing system comprising: a first reservoir to store printing fluid; a second reservoir to store printing fluid; and a printing fluid circulation circuit , the printing fluid circulation circuit comprising: a first circuit port to supply printing fluid to, or receive printing fluid from, a first fluid port of a printhead ; a second circuit port to supply printing fluid to, or receive printing fluid from, a second fluid port of a printhead; wherein the printing fluid circulation circuit is to operate in a first mode to concurrently supply printing fluid from the first reservoir to the first circuit port and from a second circuit port to the second reservoir, and in a second mode to concurrently supply printing fluid from the first reservoir to the second circuit port and from the first circuit port to the second reservoir. a first reservoir to store printing fluid; a second reservoir to store printing fluid; and a printing fluid circulation circuit , the printing fluid circulation circuit comprising: a first circuit port to supply printing fluid to, or receive printing fluid from, a first fluid port of a printhead ; a second circuit port to supply printing fluid to, or receive printing fluid from, a second fluid port of a printhead; wherein the printing fluid circulation circuit is to operate in a first mode to concurrently supply printing fluid from the first reservoir to the first circuit port and from a second circuit port to the second reservoir, and in a second mode to concurrently supply printing fluid from the first reservoir to the second circuit port and from the first circuit port to the second reservoir. a first circuit port to supply printing fluid to, or receive printing fluid from, a first fluid port of a printhead ; a second circuit port to supply printing fluid to, or receive printing fluid from, a second fluid port of a printhead; wherein the printing fluid circulation circuit is to operate in a first mode to concurrently supply printing fluid from the first reservoir to the first circuit port and from a second circuit port to the second reservoir, and in a second mode to concurrently supply printing fluid from the first reservoir to the second circuit port and from the first circuit port to the second reservoir.
A glass holder suitable for use in a dishwasher, comprising - a body having two mutual pillars and a crosspiece extending between the pillars, - a plurality of holder members arranged on the crosspiece, suitable for grasping wine glasses at their stem portions, and - a base provided between the pillars, on which the bowl portions of the wine glasses are placed, - characterized by the base comprising a frame , and at least one support member movably mounted in the frame having a closed position (K) in which it forms a planar floor being flush with the frame , and at least one open position (A) in which it stands biased with respect to the frame by moving inside the frame . - a body having two mutual pillars and a crosspiece extending between the pillars, - a plurality of holder members arranged on the crosspiece, suitable for grasping wine glasses at their stem portions, and - a base provided between the pillars, on which the bowl portions of the wine glasses are placed, - characterized by the base comprising a frame , and at least one support member movably mounted in the frame having a closed position (K) in which it forms a planar floor being flush with the frame , and at least one open position (A) in which it stands biased with respect to the frame by moving inside the frame .
A catalyst activation method for activating a selective catalytic reduction type NOx catalyst of a catalyst activation device for purifying exhaust gas from an internal combustion engine , the catalyst activation device including a plurality of accessories , which are connected to the internal combustion engine , and a plurality of clutches which are provided individually on the accessories and are configured to transmit power from the internal combustion engine to the accessory at an arbitrary engagement ratio to control a load which is exerted on the internal combustion engine by driving each of the accessories , the method comprising: acquiring a temperature of the NOx catalyst; driving additionally a certain number of accessories in the plurality of accessories which correspond to a temperature difference between the acquired temperature of the NOx catalyst and a catalyst activation temperature of the NOx catalyst to increase the load to be exerted on the internal combustion engine when the acquired temperature is lower than the catalyst activation temperature; and controlling the engagement ratio of the clutch corresponding to at least one accessory to be driven according to the number of accessories corresponding to the temperature difference, in a case where the number of accessories is a positive value including a figure other than zero after a decimal point. acquiring a temperature of the NOx catalyst; driving additionally a certain number of accessories in the plurality of accessories which correspond to a temperature difference between the acquired temperature of the NOx catalyst and a catalyst activation temperature of the NOx catalyst to increase the load to be exerted on the internal combustion engine when the acquired temperature is lower than the catalyst activation temperature; and controlling the engagement ratio of the clutch corresponding to at least one accessory to be driven according to the number of accessories corresponding to the temperature difference, in a case where the number of accessories is a positive value including a figure other than zero after a decimal point.