mhurhangee/ep-ind-claims huggingface dataset:
A method for an overall chain-of-trust for an industrial control system, comprising: providing secure hardware, including a hardware security module coupled to or integrated with a processor of the industrial control system to provide a hardware root-of-trust; providing secure firmware associated with a secure boot mechanism such that the processor executes a trusted operating system, wherein the secure boot mechanism includes one or more of a measured boot, a trusted boot, and a protected boot; accessing objects via secure data storage; automatically access an encrypted storage included in the industrial control system to execute the trusted operating system to configure components, included in the industrial control system, for an industrial asset; and exchanging data via secure communications in accordance with information stored in the hardware security module. providing secure hardware, including a hardware security module coupled to or integrated with a processor of the industrial control system to provide a hardware root-of-trust; providing secure firmware associated with a secure boot mechanism such that the processor executes a trusted operating system, wherein the secure boot mechanism includes one or more of a measured boot, a trusted boot, and a protected boot; accessing objects via secure data storage; automatically access an encrypted storage included in the industrial control system to execute the trusted operating system to configure components, included in the industrial control system, for an industrial asset; and exchanging data via secure communications in accordance with information stored in the hardware security module.
An immunoconjugate which binds to FOLR1 polypeptide for use in the treatment of a FOLR1-expressing cancer, wherein the immunoconjugate comprises a maytansinoid and an antibody or antigen-binding fragment thereof that comprises the variable light chain complementarity determining region -1 of SEQ ID NO: 6, the VL CDR-2 of SEQ ID NO: 7, the VL CDR-3 of SEQ ID NO: 8, the variable heavy chain CDR-1 of SEQ ID NO: 9, the VH CDR-2 of SEQ ID NO: 11, and the VH CDR-3 of SEQ ID NO: 12, wherein the cancer is ovarian cancer, cancer of the peritoneum, endometrial cancer, or uterine cancer, preferably, wherein the cancer is a FOLR1-expressing ovarian cancer, and wherein the immunoconjugate is administered at a dose of 6 milligrams (mg) per kilogram (kg) of adjusted ideal body weight (AIBW).
An industrial vehicle that implements an automatic engine stop function that automatically stops an engine installed on a vehicle body, the industrial vehicle comprising: an engine starting battery arranged in the vehicle body to start the engine; and an operator seat arranged on the vehicle body, the industrial vehicle being characterized by a seating detector (S2, S6, 27a) adapted to detect whether or not the operator seat is vacant, and a controller adapted to disable the automatic engine stop function if the engine is started when the seating detector (S2, S6, 27a) detects that the operator seat is vacant. an engine starting battery arranged in the vehicle body to start the engine; and an operator seat arranged on the vehicle body, the industrial vehicle being characterized by a seating detector (S2, S6, 27a) adapted to detect whether or not the operator seat is vacant, and a controller adapted to disable the automatic engine stop function if the engine is started when the seating detector (S2, S6, 27a) detects that the operator seat is vacant.
A light source system (700, 1000, 1100), comprising: a light generating device including a light source (701, 1001, 1101) for generating an excitation light and a wavelength conversion layer (703B, 1003B, 1103B) comprising a first segment including a first wavelength conversion material adapted to absorb the excitation light and emit a first output light and a second segment adapted to output a second output light; a light division system including a first light division device (703A, 1003A, 1103A), a first drive device and a light guiding device; a first spatial light modulator (711, 1011, 1111); and a second spatial light modulator (713, 1013, 1113); wherein: the wavelength conversion layer (703B, 1003B, 1103B) and the first light division device (703A, 1003A, 1103A) are fixedly connected, and set concentrically on a color wheel (703, 1003, 1103); the light guiding device is disposed on either one of the sides of the color wheel (703, 1003, 1103) to guide the sequence of output lights to the first light division device (703A, 1003A, 1103A); and the first light division device (703A, 1003A, 1103A) is adapted to selectively reflect or transmit the sequence of output lights to the first spatial light modulator along a first optical path and to the second spatial light modulator along a second optical path. a light generating device including a light source (701, 1001, 1101) for generating an excitation light and a wavelength conversion layer (703B, 1003B, 1103B) comprising a first segment including a first wavelength conversion material adapted to absorb the excitation light and emit a first output light and a second segment adapted to output a second output light; a light division system including a first light division device (703A, 1003A, 1103A), a first drive device and a light guiding device; a first spatial light modulator (711, 1011, 1111); and a second spatial light modulator (713, 1013, 1113); the wavelength conversion layer (703B, 1003B, 1103B) and the first light division device (703A, 1003A, 1103A) are fixedly connected, and set concentrically on a color wheel (703, 1003, 1103); the light guiding device is disposed on either one of the sides of the color wheel (703, 1003, 1103) to guide the sequence of output lights to the first light division device (703A, 1003A, 1103A); and the first light division device (703A, 1003A, 1103A) is adapted to selectively reflect or transmit the sequence of output lights to the first spatial light modulator along a first optical path and to the second spatial light modulator along a second optical path.
Discharging apparatus for liquid, pasty or pulverulent media, having - a housing, - a discharging opening for discharging the medium, - a reservoir for storing the medium prior to being discharged, and - a handle, which can be moved linearly in relation to the housing and, by way of a manually induced displacement movement, causes medium to be delivered from the reservoir to the discharging opening, wherein - the discharging apparatus has an electric load (20, 24), and - the discharging apparatus has a converter (50; 150; 250), by means of which the mechanical energy introduced at the handle is converted into electrical energy for supplying the electric load (20, 24), characterized in that - the mechanical energy introduced at the handle is fed to the converter (50; 150; 250) by a transmission unit (30; 130; 230; 330; 430), by means of which the linear movement of the handle or of a stressing member of a spring energy store (440, 442), which can be subjected to stressing by means of the handle, is converted into a non-rotary oscillating movement of a pendulum member (36; 136; 236; 336, 338; 436), and - the converter (50; 150; 250) is designed for converting the mechanical energy of the oscillating pendulum member (36; 136; 236; 336; 436) into electrical energy. - a housing, - a discharging opening for discharging the medium, - a reservoir for storing the medium prior to being discharged, and - a handle, which can be moved linearly in relation to the housing and, by way of a manually induced displacement movement, causes medium to be delivered from the reservoir to the discharging opening, - the discharging apparatus has an electric load (20, 24), and - the discharging apparatus has a converter (50; 150; 250), by means of which the mechanical energy introduced at the handle is converted into electrical energy for supplying the electric load (20, 24), - the mechanical energy introduced at the handle is fed to the converter (50; 150; 250) by a transmission unit (30; 130; 230; 330; 430), by means of which the linear movement of the handle or of a stressing member of a spring energy store (440, 442), which can be subjected to stressing by means of the handle, is converted into a non-rotary oscillating movement of a pendulum member (36; 136; 236; 336, 338; 436), and - the converter (50; 150; 250) is designed for converting the mechanical energy of the oscillating pendulum member (36; 136; 236; 336; 436) into electrical energy.
A physical quantity conversion sensor comprising: a first sensor element that outputs a first output signal in correspondence to a first physical quantity acting from the outside; a second sensor element that outputs a second output signal associated with the first output signal in correspondence to the first physical quantity acting from the outside; a first conversion processing section that converts the first output signal output from the first sensor element and the second output signal output from the second sensor element into a second physical quantity, wherein the first sensor element, the second sensor element and the first conversion processing section are arranged in a first package, characterized in that the physical quantity conversion sensor further comprises a second conversion processing section that is arranged in a second package distinct from the first package, and that converts the first output signal output from the first sensor element and the second output signal output from the second sensor element into the second physical quantity, in order to allow for a comparison of the second physical quantities output by the first conversion processing section and the second conversion processing section, respectively, so that faults of the first conversion processing section and the second conversion processing section may be detected. a first sensor element that outputs a first output signal in correspondence to a first physical quantity acting from the outside; a second sensor element that outputs a second output signal associated with the first output signal in correspondence to the first physical quantity acting from the outside; a first conversion processing section that converts the first output signal output from the first sensor element and the second output signal output from the second sensor element into a second physical quantity, wherein the first sensor element, the second sensor element and the first conversion processing section are arranged in a first package, characterized in that the physical quantity conversion sensor further comprises a second conversion processing section that is arranged in a second package distinct from the first package, and that converts the first output signal output from the first sensor element and the second output signal output from the second sensor element into the second physical quantity, in order to allow for a comparison of the second physical quantities output by the first conversion processing section and the second conversion processing section, respectively, so that faults of the first conversion processing section and the second conversion processing section may be detected.
A coating film transfer tool comprising: a feeding portion configured to feed a transfer tape in which a coating film is provided on a backing tape; a transfer press portion configured to press the transfer tape onto a transfer-target surface to transfer the coating film; and a winding portion configured to wind up the backing tape after the coating film has been transferred, by rotating in conjunction with the feeding portion, wherein the transfer press portion is provided with a transfer head configured to transfer the coating film, the transfer head is movable in a width direction of the transfer tape independent of the feeding portion and the winding portion, the transfer head is provided with a pair of guide walls configured to use their inner surfaces to restrict movement in the tape width direction of the transfer tape from which the coating film is yet to be transferred, and characterised by the pair of guide walls and a tip portion of the transfer head configured to transfer the coating film is configured to press against the transfer-target surface at the same time. a feeding portion configured to feed a transfer tape in which a coating film is provided on a backing tape; a transfer press portion configured to press the transfer tape onto a transfer-target surface to transfer the coating film; and a winding portion configured to wind up the backing tape after the coating film has been transferred, by rotating in conjunction with the feeding portion, wherein the transfer press portion is provided with a transfer head configured to transfer the coating film, the transfer head is movable in a width direction of the transfer tape independent of the feeding portion and the winding portion, the transfer head is provided with a pair of guide walls configured to use their inner surfaces to restrict movement in the tape width direction of the transfer tape from which the coating film is yet to be transferred, and characterised by the pair of guide walls and a tip portion of the transfer head configured to transfer the coating film is configured to press against the transfer-target surface at the same time.
A printer, comprising: a lower module including a paper feed unit and a printing unit configured to print on paper fed by the paper feed unit; an upper module above the lower module, a back side of the upper module being supported by the lower module to permit rotational movement of a front side of the upper module upwards and downwards to come into contact with and move away from the lower module; a paper handling part in the upper module configured to hold paper after printing by the printing unit; a discharge unit in the upper module configured to move the paper from the paper handling part out of the upper module while maintaining a hold on a rear portion of the paper and to draw the paper back into the upper module after an elapse of a predetermined time; and a container including a support member, a back side of the support member being supported to permit rotational movement of a front side of the support member upwards and downwards to come into contact with and move away from a lower part of the upper module, the container configured to receive and store the paper drawn back by the discharge unit in a region between the support member and the lower part of the upper module. a lower module including a paper feed unit and a printing unit configured to print on paper fed by the paper feed unit; an upper module above the lower module, a back side of the upper module being supported by the lower module to permit rotational movement of a front side of the upper module upwards and downwards to come into contact with and move away from the lower module; a paper handling part in the upper module configured to hold paper after printing by the printing unit; a discharge unit in the upper module configured to move the paper from the paper handling part out of the upper module while maintaining a hold on a rear portion of the paper and to draw the paper back into the upper module after an elapse of a predetermined time; and a container including a support member, a back side of the support member being supported to permit rotational movement of a front side of the support member upwards and downwards to come into contact with and move away from a lower part of the upper module, the container configured to receive and store the paper drawn back by the discharge unit in a region between the support member and the lower part of the upper module.
A drug-polymer nanoconjugate composition comprising a drug-polymer nanoconjugate particle having a block copolymer coating, and an albumin coating; wherein the drug-polymer nanoconjugate particle comprises one or more drugs and one or more polymers, and the one or more drugs of the drug-polymer nanoconjugate particles are individually covalently bonded to initiation points of individual polymers of the drug-polymer conjugate through ether or thioether moieties; the one or more polymers of the drug-polymer nanoconjugate particles comprise polyester, polycarbonate, polyphosphate, polysiloxane, polyphosphazane, polypeptide, or amino acid oligomers segments, or a combination thereof; the block copolymer coating comprises PEG and lactide blocks; and the block copolymer coating is coated with an amount of albumin effective to at least substantially prevent aggregation of the drug-polymer nanoconjugate particles when in contact with other drug-polymer nanoconjugates particles; wherein the ratio of the mass of albumin coating to the total mass of the drug-polymer nanoconjugate particles is 2:1 to 20:1; and wherein the composition has a diameter of 2 nm to 300 nm and a mass of less than 2 wt.% of total drugs that are not covalently bonded to the polymer.
A gas sensor kit comprising: a gas sensor that is configured to measure a gas concentration of an exhalation gas of a subject; a gas supply unit that is configured to supply a therapeutic gas, supplied through a tube, to the subject; and a nasal adapter configured to be disposed in a vicinity of nostrils of the subject for introducing the exhalation gas of the subject to the gas sensor, wherein each of the gas supply unit and the gas sensor has an attachment and detachment mechanism by which the gas supply unit is capable of being attached to and detached from the gas sensor, and the gas supply unit is connected with the nasal adapter through the gas sensor. a gas sensor that is configured to measure a gas concentration of an exhalation gas of a subject; a gas supply unit that is configured to supply a therapeutic gas, supplied through a tube, to the subject; and a nasal adapter configured to be disposed in a vicinity of nostrils of the subject for introducing the exhalation gas of the subject to the gas sensor, wherein each of the gas supply unit and the gas sensor has an attachment and detachment mechanism by which the gas supply unit is capable of being attached to and detached from the gas sensor, and the gas supply unit is connected with the nasal adapter through the gas sensor.
Positive electrode active substance particles each comprising: a core particle X comprising a lithium nickelate composite oxide having a layer structure which is represented by the formula: Li 1+a Ni 1-b-c Co b M c O 2 wherein M is at least one element selected from the group consisting of Mn, Al, B, Mg, Ti, Sn, Zn and Zr; a is a number of -0.1 to 0.2 (-0.1 ≤ a ≤ 0.2); b is a number of 0.05 to 0.5 (0.05 ≤ b ≤ 0.5); and c is a number of 0.01 to 0.4 (0.01 ≤ c ≤ 0.4); and a coating compound Y comprising at least one element selected from the group consisting of Al, Mg, Zr, Ti and Si, in which the coating compound Y has an average film thickness of 0.2 to 5 nm, a degree of crystallinity of 50 to 95%, a degree of epitaxy of 50 to 95% and a coating ratio i.e. coverage, of 50 to 95%. a core particle X comprising a lithium nickelate composite oxide having a layer structure which is represented by the formula: Li 1+a Ni 1-b-c Co b M c O 2 wherein M is at least one element selected from the group consisting of Mn, Al, B, Mg, Ti, Sn, Zn and Zr; a is a number of -0.1 to 0.2 (-0.1 ≤ a ≤ 0.2); b is a number of 0.05 to 0.5 (0.05 ≤ b ≤ 0.5); and c is a number of 0.01 to 0.4 (0.01 ≤ c ≤ 0.4); and a coating compound Y comprising at least one element selected from the group consisting of Al, Mg, Zr, Ti and Si, in which the coating compound Y has an average film thickness of 0.2 to 5 nm, a degree of crystallinity of 50 to 95%, a degree of epitaxy of 50 to 95% and a coating ratio i.e. coverage, of 50 to 95%.
An enamel composition comprising: a glass frit; and a metal oxide catalyst, wherein the metal oxide catalyst includes a binary metal oxide, wherein the binary metal oxide includes at least one selected from the group of a Cu-Mo alloy metal oxide and a Bi-Mo alloy metal oxide, and wherein the enamel composition comprises: 90 wt% to 98 wt% of the glass frit; and 2 wt% to 10 wt% of the metal oxide catalyst. a glass frit; and a metal oxide catalyst, wherein the metal oxide catalyst includes a binary metal oxide, wherein the binary metal oxide includes at least one selected from the group of a Cu-Mo alloy metal oxide and a Bi-Mo alloy metal oxide, and wherein the enamel composition comprises: 90 wt% to 98 wt% of the glass frit; and 2 wt% to 10 wt% of the metal oxide catalyst.
A monitoring apparatus comprising: acquisition means for acquiring history data generated in one or more wireless communication apparatuses, the history data indicating at least information related to the time at which failures have occurred in each predetermined time period and related to a received signal level in each predetermined time period, the failures occurring in a wireless communication apparatus and including at least a first failure where a data error occurs and a second failure where wireless communication is impossible; and distinguishing means for determining a type of fading that has occurred in wireless lines related to the wireless communication apparatuses based on the history data, characterized in that the time at which failures have occurred includes a first failure occurrence time corresponding to a time period at which the first failure has occurred in the predetermined time period and a second failure occurrence time corresponding to non-operating time at which the second failure has occurred in the predetermined time period; and the distinguishing means determines that interference fading has occurred when a ratio of the second failure occurrence time to the sum of the first failure occurrence time and the second failure occurrence time is equal to or less than a predetermined first value, wherein interference fading is multipath fading or frequency selective fading. acquisition means for acquiring history data generated in one or more wireless communication apparatuses, the history data indicating at least information related to the time at which failures have occurred in each predetermined time period and related to a received signal level in each predetermined time period, the failures occurring in a wireless communication apparatus and including at least a first failure where a data error occurs and a second failure where wireless communication is impossible; and distinguishing means for determining a type of fading that has occurred in wireless lines related to the wireless communication apparatuses based on the history data, characterized in that the time at which failures have occurred includes a first failure occurrence time corresponding to a time period at which the first failure has occurred in the predetermined time period and a second failure occurrence time corresponding to non-operating time at which the second failure has occurred in the predetermined time period; and the distinguishing means determines that interference fading has occurred when a ratio of the second failure occurrence time to the sum of the first failure occurrence time and the second failure occurrence time is equal to or less than a predetermined first value, wherein interference fading is multipath fading or frequency selective fading.
A cooling device that comprises a body, more than one side wall restricting the cooling and/or freezing compartments, an evaporator, at least one fan for activating the air cooled by the evaporator and an evaporator lid that separates the evaporator from the cooling and/or freezing compartment, characterized by said evaporator lid having more than one panel (7, 107) that are fitted to one another from one of the sides thereof, movable with respect to one another, wherein the width thereof can be adjusted by moving the panels (7, 107) in accordance with bodies having different distances between the side walls.