mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger device for use in a ventilation unit, the heat exchanger device having: i) a first fluid flow path array comprising a plurality of fluid channels having a first fluid inlet side to the heat exchanger device and first fluid outlet side from the heat exchanger device; ii) a second fluid flow path array comprising a plurality of fluid channels through the heat exchanger device having a second fluid inlet side to the heat exchanger device and a second fluid outlet side from the heat exchanger device, the first and second fluid pathway arrays being in heat exchange contact, via intervening heat exchange surfaces; and closure elements arranged in a first mode of operation to block the first and second fluid flow path arrays at selected zones while permitting flow through the first and second fluid flow path arrays at other selected zones, the closure elements being arranged such that for a given zone flow is permitted in one of the first and second fluid flow path arrays whilst being inhibited in the other to prevent flow through adjacent channels of the heat exchanger in the respective zones to create a bypass function in which little or no heat exchange can occur. i) a first fluid flow path array comprising a plurality of fluid channels having a first fluid inlet side to the heat exchanger device and first fluid outlet side from the heat exchanger device; ii) a second fluid flow path array comprising a plurality of fluid channels through the heat exchanger device having a second fluid inlet side to the heat exchanger device and a second fluid outlet side from the heat exchanger device, the first and second fluid pathway arrays being in heat exchange contact, via intervening heat exchange surfaces; and
A security element (EL) or document (BN), such as a banknote, comprising : - a substrate (S) with first and second sides (I, II) and exhibiting at least one window region (W) made of a substantially transparent material ; - a micro-optical structure (OP) provided on the first side (I) of the substrate (S) and extending over at least a part of the window region (W) ; and - a printed feature (P1-P3) printed on the second side (II) of the substrate (S) over at least a part of the window region (W), the printed feature (P1-P3) being provided in register with the micro-optical structure (OP) to produce an optically-variable effect (EF) upon looking at the printed feature (P1-P3) from the first side (I) of the substrate (S) through the micro-optical structure (OP) and the window region (W), wherein the security element (EL) or document (BN) further comprises a protective layer (L) acting as printable primer layer and provided on the second side (II) of the substrate (S) over the window region (W) and on top of the printed feature (P1-P3), which protective layer (L) covers the printed feature (P1-P3) when seen from the second side (II) of the substrate (S) and further acts as a contrast-enhancing layer for the optically-variable effect (EF), characterised in that the printed feature (P1-P3) is a multicolour feature printed by Simultan offset printing, wherein the protective layer (L) is overprinted on top of the printed feature (P1-P3), wherein the protective layer (L) is a layer having a substantially uniform colour appearance that closely matches that of an unprinted surface of the substrate (S), wherein the protective layer (L) is applied by screen printing. - a substrate (S) with first and second sides (I, II) and exhibiting at least one window region (W) made of a substantially transparent material ; - a micro-optical structure (OP) provided on the first side (I) of the substrate (S) and extending over at least a part of the window region (W) ; and - a printed feature (P1-P3) printed on the second side (II) of the substrate (S) over at least a part of the window region (W), the printed feature (P1-P3) being provided in register with the micro-optical structure (OP) to produce an optically-variable effect (EF) upon looking at the printed feature (P1-P3) from the first side (I) of the substrate (S) through the micro-optical structure (OP) and the window region (W),
An x-ray apparatus, comprising: a vacuum box which is sealed at its periphery, and the interior thereof is high vacuum; a plurality of thermionic electron transmitting units arranged in one plane in a two dimensional array on the wall of the vacuum box ; an anode arranged in parallel with the plane of the plurality of electron transmitting units in the vacuum box , characterized in that the anode comprises: an anode plate made of metal and parallel to the plane of the electron transmitting units ; a plurality of targets being arranged on the anode plate and disposed corresponding to the positions of the electron transmitting units , the bottom surface of each target is connected to the anode plate and the upper surface of each target has a predetermined angle with the anode plate, wherein the electron transmitting units and the plurality of targets are arranged such that electrons generated by the thermionic electron transmitting units bombard the plurality of targets on the anode, thereby generating x-rays, wherein the x-rays are transmitted in parallel to the plane of the array of the electron transmitting units . a vacuum box which is sealed at its periphery, and the interior thereof is high vacuum; a plurality of thermionic electron transmitting units arranged in one plane in a two dimensional array on the wall of the vacuum box ; an anode arranged in parallel with the plane of the plurality of electron transmitting units in the vacuum box , characterized in that the anode comprises: an anode plate made of metal and parallel to the plane of the electron transmitting units ; a plurality of targets being arranged on the anode plate and disposed corresponding to the positions of the electron transmitting units , the bottom surface of each target is connected to the anode plate and the upper surface of each target has a predetermined angle with the anode plate, wherein the electron transmitting units and the plurality of targets are arranged such that electrons generated by the thermionic electron transmitting units bombard the plurality of targets on the anode, thereby generating x-rays, wherein the x-rays are transmitted in parallel to the plane of the array of the electron transmitting units . an anode plate made of metal and parallel to the plane of the electron transmitting units ; a plurality of targets being arranged on the anode plate and disposed corresponding to the positions of the electron transmitting units , the bottom surface of each target is connected to the anode plate and the upper surface of each target has a predetermined angle with the anode plate,
A method of promoting the activation and proliferation of a natural killer cell or a T cell, the method comprising: contacting a natural killer cell or a T cell in a liquid culture medium comprising an effective amount of (i) a single-chain chimeric polypeptide comprising a first target-binding domain, a linker domain, and a second target-binding domain, and (ii) an IgG1 antibody construct that comprises at least one antigen-binding domain that binds specifically to the linker domain, under conditions that allow for the activation and proliferation of the natural killer cell or the T cell, wherein the first target-binding domain and the second target-binding domain are each independently selected from the group consisting of: a soluble interleukin, soluble cytokine protein, or soluble cell surface protein, an antigen-binding domain, a soluble interleukin receptor, soluble cytokine receptor, or soluble cell surface receptor, and ligands of co-stimulatory molecules. contacting a natural killer cell or a T cell in a liquid culture medium comprising an effective amount of (i) a single-chain chimeric polypeptide comprising a first target-binding domain, a linker domain, and a second target-binding domain, and (ii) an IgG1 antibody construct that comprises at least one antigen-binding domain that binds specifically to the linker domain, under conditions that allow for the activation and proliferation of the natural killer cell or the T cell, wherein the first target-binding domain and the second target-binding domain are each independently selected from the group consisting of: a soluble interleukin, soluble cytokine protein, or soluble cell surface protein, an antigen-binding domain, a soluble interleukin receptor, soluble cytokine receptor, or soluble cell surface receptor, and ligands of co-stimulatory molecules.
A non-oriented electrical steel sheet comprising, as a chemical composition, by mass%: C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.01% to 3.00%; Mn: 0.10% to 2.00%; P: 0.005% to 0.200%; S: 0.0030% or less; Cu: more than 1.0% and 3.0% or less; Ni: 0.10% to 3.0%; one or more selected from the group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: more than 0.0005% and 0.0100% or less in total; a parameter Q represented by Formula 1 where a Si content in mass% is set as [Si], an Al content in mass% is set as [Al], and a Mn content in mass% is set as [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cr: 0.0% to 10.0%, and a remainder: Fe and impurities, wherein a number of particles of elemental Cu having a diameter of less than 100 nm is 5 or more per 10 μm 2 , a crystal orientation intensity is 2.4 or more, a thickness is 0.10 mm to 0.60 mm, and an average grain size is 70 μm to 200 μm Q = Si + 2 Al − Mn wherein the number of particles of elemental Cu, the crystal orientation intensity and the average grain size are measured as defined in the description. C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.01% to 3.00%; Mn: 0.10% to 2.00%; P: 0.005% to 0.200%; S: 0.0030% or less; Cu: more than 1.0% and 3.0% or less; Ni: 0.10% to 3.0%; one or more selected from the group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: more than 0.0005% and 0.0100% or less in total; a parameter Q represented by Formula 1 where a Si content in mass% is set as [Si], an Al content in mass% is set as [Al], and a Mn content in mass% is set as [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cr: 0.0% to 10.0%, and a remainder: Fe and impurities, wherein a number of particles of elemental Cu having a diameter of less than 100 nm is 5 or more per 10 μm 2 , a crystal orientation intensity is 2.4 or more, a thickness is 0.10 mm to 0.60 mm, and an average grain size is 70 μm to 200 μm Q = Si + 2 Al − Mn wherein the number of particles of elemental Cu, the crystal orientation intensity and the average grain size are measured as defined in the description.
A method for stripping a material residue from a dosing nozzle , the dosing nozzle with the material residue being guided past a stripping element so that the material residue comes into contact with the stripping element and is stripped off by the movement of the dosing nozzle , the stripping element performing a closed rotational movement, by means of which a segment of the stripping element - first arrives at a stripping position, in which the material residue is stripped from the dosing nozzle and at least some of the material residue remains adhering on the segment , - is then guided with the material residue adhering thereon to a separating position, in which a separating unit is used to separate the material residue from the segment of the stripping element, and - is guided back to the stripping position to receive a further material residue . - first arrives at a stripping position, in which the material residue is stripped from the dosing nozzle and at least some of the material residue remains adhering on the segment , - is then guided with the material residue adhering thereon to a separating position, in which a separating unit is used to separate the material residue from the segment of the stripping element, and - is guided back to the stripping position to receive a further material residue .
A cold cathode ionization gauge , comprising: an anode ; a cathode , which has a tubular shape, and is arranged to surround the anode ; a seal mounted at one end of the cathode for sealing the one end of the cathode , whereby the anode passes through the seal while being fixed thereto in an airtight manner; a first member is positioned between an open end of the cathode different from the one end of the cathode and the seal, which faces the seal inside the cathode , and has a through hole formed therein, characterized in that ; a partition for partitioning a space surrounded by the cathode , the seal , and the first member into a first space positioned on the side of the first member and a second space positioned on the side of the seal , where the partition is arranged between the first space and the second space ; and a light source , which is arranged in the partition, and is configured to emit an electromagnetic wave, wherein the partition comprises a second member positioned between the seal and the first member , and a third member arranged on the second member in the first space side, wherein at least part of the light source is located between the second member and the third member , wherein a gap is formed between at least part of an outer peripheral portion of the third member and the cathode to allow electromagnetic waves to be introduced into the first space through the gap , wherein the first member is placed between the second member and the open end of the cathode . an anode ; a cathode , which has a tubular shape, and is arranged to surround the anode ; a seal mounted at one end of the cathode for sealing the one end of the cathode , whereby the anode passes through the seal while being fixed thereto in an airtight manner; a first member is positioned between an open end of the cathode different from the one end of the cathode and the seal, which faces the seal inside the cathode , and has a through hole formed therein, characterized in that ; a partition for partitioning a space surrounded by the cathode , the seal , and the first member into a first space positioned on the side of the first member and a second space positioned on the side of the seal , where the partition is arranged between the first space and the second space ; and a light source , which is arranged in the partition, and is configured to emit an electromagnetic wave, wherein the partition comprises a second member positioned between the seal and the first member , and a third member arranged on the second member in the first space side, wherein at least part of the light source is located between the second member and the third member , wherein a gap is formed between at least part of an outer peripheral portion of the third member and the cathode to allow electromagnetic waves to be introduced into the first space through the gap , wherein the first member is placed between the second member and the open end of the cathode .
A radio station comprising: radio communication means for communicating on a licensed frequency and an unlicensed frequency; control means for transmitting, to a radio terminal on the licensed frequency, control information (S102) associated with a Received Signal Strength Indicator, RSSI, measurement (S104) on the unlicensed frequency, characterized in that the control information (S102) includes: information indicating a second period, wherein the second period comprises a first period in which a signal (S103) can be transmitted and a third period in which the radio terminal is not needed to perform the RSSI measurement (S104), the first period occurs periodically at a periodicity of the second period, and the third period follows the first period; and an offset value to indicate a subframe number and a System Frame Number, SFN, at which the first period is started, and the control means is further adapted to receive (SI05), from the radio terminal on the licensed frequency, a result of the RSSI measurement (S104) which is performed within the first period started at the subframe number and the SFN indicated by at least the offset value. radio communication means for communicating on a licensed frequency and an unlicensed frequency; control means for transmitting, to a radio terminal on the licensed frequency, control information (S102) associated with a Received Signal Strength Indicator, RSSI, measurement (S104) on the unlicensed frequency, characterized in that the control information (S102) includes: information indicating a second period, wherein the second period comprises a first period in which a signal (S103) can be transmitted and a third period in which the radio terminal is not needed to perform the RSSI measurement (S104), the first period occurs periodically at a periodicity of the second period, and the third period follows the first period; and an offset value to indicate a subframe number and a System Frame Number, SFN, at which the first period is started, and information indicating a second period, wherein the second period comprises a first period in which a signal (S103) can be transmitted and a third period in which the radio terminal is not needed to perform the RSSI measurement (S104), the first period occurs periodically at a periodicity of the second period, and the third period follows the first period; and an offset value to indicate a subframe number and a System Frame Number, SFN, at which the first period is started, and the control means is further adapted to receive (SI05), from the radio terminal on the licensed frequency, a result of the RSSI measurement (S104) which is performed within the first period started at the subframe number and the SFN indicated by at least the offset value.
A system useful in detecting, analyzing, and displaying one or more of respiration, cardiac activity, and bodily function or movement of a living subject, the system comprising: a transmitter configured to generate a pulsed continuous wave radio-frequency signal; a non-contact sensor or receiver arranged to receive, without any direct or indirect physical contact with the subject, a transmitted pulsed continuous wave radio-frequency signal reflected from the living subject; a multiplier circuit arranged to multiply the received pulsed continuous wave radio-frequency signal reflected from the subject with a portion of the transmitted pulsed continuous wave radio-frequency signal and to output a baseband signal containing information about said one or more of respiration, cardiac activity, and bodily function or movement; a processor configured to analyze the baseband signal and to derive measurements of said one or more of respiration, cardiac activity, and bodily function or movement therefrom; and a display configured to provide analyzed and derived measurements; characterized in that the processor is further configured to derive high level output information based on the analyzed and derived measurements, the derived high level output information comprising one or more of sleep state or sleep disorders; and the display is further configured to provide derived high level output information to a local or remote user of the system. a transmitter configured to generate a pulsed continuous wave radio-frequency signal; a non-contact sensor or receiver arranged to receive, without any direct or indirect physical contact with the subject, a transmitted pulsed continuous wave radio-frequency signal reflected from the living subject; a multiplier circuit arranged to multiply the received pulsed continuous wave radio-frequency signal reflected from the subject with a portion of the transmitted pulsed continuous wave radio-frequency signal and to output a baseband signal containing information about said one or more of respiration, cardiac activity, and bodily function or movement; a processor configured to analyze the baseband signal and to derive measurements of said one or more of respiration, cardiac activity, and bodily function or movement therefrom; and a display configured to provide analyzed and derived measurements; characterized in that the processor is further configured to derive high level output information based on the analyzed and derived measurements, the derived high level output information comprising one or more of sleep state or sleep disorders; and the display is further configured to provide derived high level output information to a local or remote user of the system.
A method of producing a recording medium, comprising: a step of preparing a liquid A which includes at least one kind of aggregating agent selected from the group consisting of an acid, a polyvalent metal compound, and a metal complex, and water; a step of preparing a liquid B which includes a resin and water, wherein the resin is selected from the group consisting of a polyester resin, a polyurethane resin, an acrylic resin, a polyamide resin, a polyurea resin, a polycarbonate resin, a polyolefin resin, and a polystyrene resin, and wherein the form of the resin in the liquid B is a particle; a step of mixing the liquid A with the liquid B at an ambient temperature of 5°C to 40°C to obtain a mixed solution; a step of storing the mixed solution at an ambient temperature of 5°C to 40°C; and a step of applying the mixed solution after the storage onto an impermeable base material within a period from 30 minutes after start of mixing the liquid A with the liquid B to 30 days after start of mixing the liquid A with the liquid B, thereby obtaining a recording medium. a step of preparing a liquid A which includes at least one kind of aggregating agent selected from the group consisting of an acid, a polyvalent metal compound, and a metal complex, and water; a step of preparing a liquid B which includes a resin and water, wherein the resin is selected from the group consisting of a polyester resin, a polyurethane resin, an acrylic resin, a polyamide resin, a polyurea resin, a polycarbonate resin, a polyolefin resin, and a polystyrene resin, and wherein the form of the resin in the liquid B is a particle; a step of mixing the liquid A with the liquid B at an ambient temperature of 5°C to 40°C to obtain a mixed solution; a step of storing the mixed solution at an ambient temperature of 5°C to 40°C; and a step of applying the mixed solution after the storage onto an impermeable base material within a period from 30 minutes after start of mixing the liquid A with the liquid B to 30 days after start of mixing the liquid A with the liquid B, thereby obtaining a recording medium.