mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring a cryopreserved biological sample, with the steps of: providing the biological sample in a cryopreserved state in a sample container in a storage area of a cryopreservation device, measuring at least one Raman spectroscopic sample characteristic on the biological sample and/or on the sample container in the cryopreserved state in the storage area of the cryopreservation device, comparing the at least one sample characteristic with a reference characteristic, and providing a state characteristic, which depends on the result of the comparison and is characteristical for a storage condition of the biological sample, wherein the state characteristic being characteristical for the storage condition of the biological sample is a characteristic, which is characteristical for the chemical state of the biological sample and/or for the physical or chemical state of the sample container. providing the biological sample in a cryopreserved state in a sample container in a storage area of a cryopreservation device, measuring at least one Raman spectroscopic sample characteristic on the biological sample and/or on the sample container in the cryopreserved state in the storage area of the cryopreservation device, comparing the at least one sample characteristic with a reference characteristic, and providing a state characteristic, which depends on the result of the comparison and is characteristical for a storage condition of the biological sample, wherein the state characteristic being characteristical for the storage condition of the biological sample is a characteristic, which is characteristical for the chemical state of the biological sample and/or for the physical or chemical state of the sample container.
Method for producing polyisocyanates comprising iminooxadiazinedione groups, wherein at least one monomeric di- and/or tri-isocyanate is oligomerised in the presence of a) at least one catalyst, b) at least one additive having a relative permittivity at 18°C to 30°C of at least 4.0, c) optionally further additives other than A measured as stated in the description, wherein there are used from 1 to 50 wt. % of additive, based on the mass of the monomeric di- and/or tri-isocyanate. a) at least one catalyst, b) at least one additive having a relative permittivity at 18°C to 30°C of at least 4.0, c) optionally further additives other than A measured as stated in the description,
An apparatus for assisting a user in visually observing oral structures, comprising: a first light source that, when energized, emits blue light having a first spectrum adapted to induce autofluorescence by tissue; a first filter in the optical path between the tissue and a user's eye, wherein the light emitted by healthy tissue, when passed through the first filter is more visually distinguishable from light emitted by unhealthy tissue; a compensating filter; and a second light source, wherein the compensating filter in conjunction with the second light source is able to compensate for the effect of the first filter such that light emitted by the second light source, if it were passed through the compensating filter and the first filter, would then have a substantially white spectrum. a first light source that, when energized, emits blue light having a first spectrum adapted to induce autofluorescence by tissue; a first filter in the optical path between the tissue and a user's eye, wherein the light emitted by healthy tissue, when passed through the first filter is more visually distinguishable from light emitted by unhealthy tissue; a compensating filter; and a second light source, wherein the compensating filter in conjunction with the second light source is able to compensate for the effect of the first filter such that light emitted by the second light source, if it were passed through the compensating filter and the first filter, would then have a substantially white spectrum.
Body of a motor vehicle equipped with a curved roof bearing on a framework (3, 4a-4d) formed by the body in a vertical direction of extension of the body, the roof extending along an overall plane defined by a longitudinal direction of extension of the body between the front and the rear and a transverse direction of extension of the body between its lateral sides, the framework (3, 4a-4d) being composed of body elements A series of interconnected longitudinal beams, at least lateral beams being braced by crossmembers (4a-4d) which are distributed along the body and which comprise a front crossmember, a rear crossmember and at least one longitudinal center crossmember (4b, 4c) interposed between the front crossmember and the rear crossmember, the roof incorporating at least one wedge (6a, 6b); 7a, 7b), via which the roof bears against the framework (3, 4a-4d), said at least one wedge (6a, 6b; 7a, 7b) forming a member for correcting a range deviation of the roof against the framework (3, 4a-4d) between a surface of the roof against the front cross-member and a surface of the roof against the framework (3, 4a-4d) at the rear of the front cross-member, characterized in that said at least one wedge (6a, 6b; 7a, 7b) is derived from the material of the roof by being formed by an impression (8, 9) formed by stamping the roof.
A helmet comprising: an upper-body; a lower-body nested within the upper-body; an opening formed between the upper-body and the lower-body; a shield comprising a shield mount, characterised in that the shield mount is sized to be releasably fitted within the opening, and the helmet further comprises: a first magnet (26b;26c) disposed within the upper-body or the lower-body for magnetically coupling, within the opening, with a second magnet coupled to the shield mount. an upper-body; a lower-body nested within the upper-body; an opening formed between the upper-body and the lower-body; a shield comprising a shield mount, characterised in that the shield mount is sized to be releasably fitted within the opening, and the helmet further comprises: a first magnet (26b;26c) disposed within the upper-body or the lower-body for magnetically coupling, within the opening, with a second magnet coupled to the shield mount.
A wound dressing or hemostat device system comprising a thermoset polyurethane shape memory polymer foam that includes at least one antimicrobial agent, wherein: the SMP foam is chemically bonded to the at least one antimicrobial agent; the at least one antimicrobial agent includes at least one of cinnamic acid, benzoic acid, gentisic acid, 4-hydroxy benzoic acid, p-coumaric acid, vanillic acid, syringic acid, protocatechuic acid, gallic acid, ferulic acid, sinapic acid, caffeic acid, or combinations thereof; the SMP foam is biocompatible. the SMP foam is chemically bonded to the at least one antimicrobial agent; the at least one antimicrobial agent includes at least one of cinnamic acid, benzoic acid, gentisic acid, 4-hydroxy benzoic acid, p-coumaric acid, vanillic acid, syringic acid, protocatechuic acid, gallic acid, ferulic acid, sinapic acid, caffeic acid, or combinations thereof; the SMP foam is biocompatible.
Method for operating a numerical control facility for controlling a manufacturing machine for manufacturing a workpiece comprising the following steps: - provision of workpiece data on the numerical control facility, - provision of CAM software on the numerical control facility, - generation of program instructions for manufacturing the workpiece by means of the manufacturing machine, wherein the program instructions are generated on the numerical control facility by means of the CAM software in accordance with the workpiece data, - encryption of the program instructions and saving of the encrypted program instructions in a non-volatile memory of the numerical control facility, - readout of the encrypted program instructions from the non-volatile memory, decryption of the encrypted program instructions and processing of the decrypted program instructions by the numerical control facility for controlling the manufacturing machine for manufacturing the workpiece. - provision of workpiece data on the numerical control facility, - provision of CAM software on the numerical control facility, - generation of program instructions for manufacturing the workpiece by means of the manufacturing machine, wherein the program instructions are generated on the numerical control facility by means of the CAM software in accordance with the workpiece data, - encryption of the program instructions and saving of the encrypted program instructions in a non-volatile memory of the numerical control facility, - readout of the encrypted program instructions from the non-volatile memory, decryption of the encrypted program instructions and processing of the decrypted program instructions by the numerical control facility for controlling the manufacturing machine for manufacturing the workpiece.
A transmission method, performed by a network device and characterized by comprising: sending indication information, wherein the indication information comprises a first indication, the first indication is used to indicate one or more positions of one or more bits to be monitored by a terminal, and the one or more bits to be monitored is at least one bit of downlink control information, DCI, on a physical downlink control channel, PDCCH; wherein the one or more positions of the one or more bits to be monitored is: one or more positions, in the DCI, of the one or more bits to be monitored; and wherein information transmitted on the PDCCH is used to indicate at least one of the following: whether the terminal needs to perform PDCCH monitoring within a first discontinuous reception, DRX, on-duration, wherein the first DRX on-duration is a current DRX on-duration, or next M DRX on-durations after a current moment, and M is a positive integer; the terminal to trigger reporting of channel state information, CSI; the terminal to trigger sending of a sounding reference signal, SRS; the terminal to receive channel state information reference signal, CSI-RS. sending indication information, wherein the indication information comprises a first indication, the first indication is used to indicate one or more positions of one or more bits to be monitored by a terminal, and the one or more bits to be monitored is at least one bit of downlink control information, DCI, on a physical downlink control channel, PDCCH; wherein the one or more positions of the one or more bits to be monitored is: one or more positions, in the DCI, of the one or more bits to be monitored; and wherein information transmitted on the PDCCH is used to indicate at least one of the following: whether the terminal needs to perform PDCCH monitoring within a first discontinuous reception, DRX, on-duration, wherein the first DRX on-duration is a current DRX on-duration, or next M DRX on-durations after a current moment, and M is a positive integer; the terminal to trigger reporting of channel state information, CSI; the terminal to trigger sending of a sounding reference signal, SRS; the terminal to receive channel state information reference signal, CSI-RS. whether the terminal needs to perform PDCCH monitoring within a first discontinuous reception, DRX, on-duration, wherein the first DRX on-duration is a current DRX on-duration, or next M DRX on-durations after a current moment, and M is a positive integer; the terminal to trigger reporting of channel state information, CSI; the terminal to trigger sending of a sounding reference signal, SRS; the terminal to receive channel state information reference signal, CSI-RS.
A housing assembly for a terminal, comprising: a housing; an antenna radiator, positioned at an outer face of the housing, and having a first orthographic projection region on the outer face; and a ferrite, arranged on an inner face of the housing and having a second orthographic projection region on the outer face, and the first orthographic projection region being located in the second orthographic projection region, wherein the housing defines an embedding gap, and the antenna radiator is embedded in the embedding gap and spaced apart from the housing through an insulation bonding layer, the antenna radiator is a radiation coil formed by one wire winding around a common axis, and the wire has an end grounded and another end electrically coupled with a matching circuit. a housing; an antenna radiator, positioned at an outer face of the housing, and having a first orthographic projection region on the outer face; and a ferrite, arranged on an inner face of the housing and having a second orthographic projection region on the outer face, and the first orthographic projection region being located in the second orthographic projection region, wherein the housing defines an embedding gap, and the antenna radiator is embedded in the embedding gap and spaced apart from the housing through an insulation bonding layer, the antenna radiator is a radiation coil formed by one wire winding around a common axis, and the wire has an end grounded and another end electrically coupled with a matching circuit.
Method for heating preforms of a thermoplastic material that comprise a region to be heated and a region not to be heated, the preforms being subjected to a reshaping operation after their heating, wherein microwaves are applied to the region of the preforms that is to be heated, at least during a portion of the period of heating, in a resonator, characterized in that the preforms are acted upon with infrared and microwave radiation, wherein the heating methods can be combined with each other by infrared emitters additionally arranged in a microwave oven in any order, zones and intensity.
A method for identifying an electrical battery equipped with an electrical interface, called identification interface, containing several pins (114 1 -114 5), called identification pins, wherein at least one of said identification pins (114 1 -114 5) can be connected to at least another one of said identification pins (114 1 -114 5) in order to allocate an identifier to said battery, said method comprising a step of reading said identifier, said method being characterized in that the step of reading said identifier comprises the following operations, performed in turn for each of said identification pins (114 1 -114 5): - polarizing said identification pin to a predetermined electric potential, called test potential; and - detecting the presence, or not, of said test potential on each of the other identification pins (114 1 -114 5); for the purpose of identifying the identification pins that are looped back to one another within said identification interface. - polarizing said identification pin to a predetermined electric potential, called test potential; and - detecting the presence, or not, of said test potential on each of the other identification pins (114 1 -114 5);
A chimeric antigen receptor having antigenic specificity for CD70, the CAR comprising: an antigen binding - transmembrane domain comprising a CD27 amino acid sequence lacking all of the CD27 intracellular T cell signaling domain; a 4-1BB intracellular T cell signaling domain; a CD3ζ intracellular T cell signaling domain; and optionally, a CD28 intracellular T cell signaling domain. an antigen binding - transmembrane domain comprising a CD27 amino acid sequence lacking all of the CD27 intracellular T cell signaling domain; a 4-1BB intracellular T cell signaling domain; a CD3ζ intracellular T cell signaling domain; and optionally, a CD28 intracellular T cell signaling domain.
An illumination device comprising: a light source device including a first light-emitting element configured to emit a first pencil of rays; and a light shaping optical system including a lens having a first lens surface on which the first pencil of rays is incident, and characterized in that, the first lens surface includes a first free-form surface represented by Expression in which x and y are used as variables, m and n are integers equal to or greater than 0, m 1 and n 1 are respectively upper limits of m and n, k is a conic constant, c is a curvature, c j is a coefficient of x m y n, j=[(m+n) 2 +m+3n]/2+1, S=[(m 1 +n 1) 2 +m 1 +3n 1]/2+1, and r=(x 2 +y 2) 1/2, and when m=2h and n=2h, where h is set to a positive integer in the Expression, a C j coefficient of an x 2h term is different from a coefficient C j of a y 2h term z = cr 2 1 + 1 − 1 + k c 2 r 2 + ∑ j = 2 s c j x m y n wherein the lens further includes a second lens surface that is a plane refractive surface configured to deflect a direction of travel of the first pencil of rays, and Expression includes at least one x p y q term, in a case where p and q are set to positive integers. a light source device including a first light-emitting element configured to emit a first pencil of rays; and a light shaping optical system including a lens having a first lens surface on which the first pencil of rays is incident, and characterized in that, the first lens surface includes a first free-form surface represented by Expression in which x and y are used as variables, m and n are integers equal to or greater than 0, m 1 and n 1 are respectively upper limits of m and n, k is a conic constant, c is a curvature, c j is a coefficient of x m y n, j=[(m+n) 2 +m+3n]/2+1, S=[(m 1 +n 1) 2 +m 1 +3n 1]/2+1, and r=(x 2 +y 2) 1/2, and when m=2h and n=2h, where h is set to a positive integer in the Expression, a C j coefficient of an x 2h term is different from a coefficient C j of a y 2h term z = cr 2 1 + 1 − 1 + k c 2 r 2 + ∑ j = 2 s c j x m y n wherein the lens further includes a second lens surface that is a plane refractive surface configured to deflect a direction of travel of the first pencil of rays, and Expression includes at least one x p y q term, in a case where p and q are set to positive integers.
System for controlling at least two environment protection devices comprising at least one bi-directional motor and a control card for each environment protection device, each control card comprising a radio receiver tuned to at least one channel of at least one multi-channel radio transmitter provided with microprocessor and raise and lower contacts for manual control of the motor and with an activation or deactivation contact, characterized in that the multi-channel radio transmitter has at least one channel selection contact, and in that the microprocessor comprises a program whose running is activated by closing of said activation or deactivation contact and that allows: activation or deactivation of the use of at least one channel of the multi-channel radio transmitter, display on a channel display of the symbol and of the state of active or inactive of a channel, change of the channel state of active or inactive by closing said raise contact, selection of a next channel when the selection contact is closed, change of the state of active or inactive of said next channel by closing of said raise contact, and storing of the new settings by way of closing of said activation or deactivation contact.
A device for controlling the intake of drugs, applicable to a package of a drug inhaler containing one or more doses of a drug, said device comprising: - sensor means adapted to detect the vibrational energy transferred to said drug inhaler package, in response to interactions of a user with said drug inhaler package to release one or more doses of said drug; - a processor connected to said sensor means; wherein said sensor means comprises at least one accelerometer implemented as MEMS; wherein said processor is configured to obtain from said accelerometer the vibrational energy detected in a time lapse; wherein said processor is configured to calculate intake information of said drug on the basis of the vibrational energy detected by said accelerometer in said time lapse. - sensor means adapted to detect the vibrational energy transferred to said drug inhaler package, in response to interactions of a user with said drug inhaler package to release one or more doses of said drug; - a processor connected to said sensor means; wherein said sensor means comprises at least one accelerometer implemented as MEMS; wherein said processor is configured to obtain from said accelerometer the vibrational energy detected in a time lapse; wherein said processor is configured to calculate intake information of said drug on the basis of the vibrational energy detected by said accelerometer in said time lapse.
A method comprising: dispensing a target amount of a diluent into a container; and applying at least some of the diluent from the container to a solid chemical product and directing the resulting use solution back into the container until an amount of the use solution in the container satisfies a requested amount, characterised in that the step of applying the diluent to dispense a solid chemical product further comprises; initiating a spray on/off cycle including spraying the solid chemical product with at least some of the diluent from the container for a first predetermined period of time and stopping the spraying of the solid chemical product for a second predetermined period of time, receiving container weight information from a weighing device positioned to measure the weight of the container; determining a weight of the use solution in the container from the container weight information; comparing the difference between a target weight of the requested use solution and the weight of the use solution in the container with a threshold; and repeating the spray on/off cycle until the threshold is satisfied dispensing a target amount of a diluent into a container; and applying at least some of the diluent from the container to a solid chemical product and directing the resulting use solution back into the container until an amount of the use solution in the container satisfies a requested amount, characterised in that the step of applying the diluent to dispense a solid chemical product further comprises; initiating a spray on/off cycle including spraying the solid chemical product with at least some of the diluent from the container for a first predetermined period of time and stopping the spraying of the solid chemical product for a second predetermined period of time, receiving container weight information from a weighing device positioned to measure the weight of the container; determining a weight of the use solution in the container from the container weight information; comparing the difference between a target weight of the requested use solution and the weight of the use solution in the container with a threshold; and repeating the spray on/off cycle until the threshold is satisfied