mhurhangee/ep-ind-claims huggingface dataset:
A laser processing machine, comprising: an exchangeable component (4, 15) detachably fastened to the laser processing machine, a control unit for controlling a processing procedure that is designed to check the suitability of the component (4, 15) for the processing procedure based on static, as well as historic and/or dynamic key data of the component (4, 15), wherein at least one label is affixed to the component, which consists of a coding that is uniquely allocated to the component, wherein the laser processing machine contains a detector unit for optical recording of the label, characterised in that the control unit is designed to read out the key data of the exchangeable component from a storage device (23a, 23b) based on the label, the detector unit has an illuminating device and a camera, and that the detector unit is designed for additionally capturing an area on the top of a workpiece for recording parameters of the processing procedure and/or for additionally capturing images of the exchangeable component (4, 15,15c) to determine the condition of the exchangeable component (4, 15, 15c) based on the images captured. an exchangeable component (4, 15) detachably fastened to the laser processing machine, a control unit for controlling a processing procedure that is designed to check the suitability of the component (4, 15) for the processing procedure based on static, as well as historic and/or dynamic key data of the component (4, 15), wherein at least one label is affixed to the component, which consists of a coding that is uniquely allocated to the component, wherein the laser processing machine contains a detector unit for optical recording of the label, characterised in that the control unit is designed to read out the key data of the exchangeable component from a storage device (23a, 23b) based on the label, the detector unit has an illuminating device and a camera, and that the detector unit is designed for additionally capturing an area on the top of a workpiece for recording parameters of the processing procedure and/or for additionally capturing images of the exchangeable component (4, 15,15c) to determine the condition of the exchangeable component (4, 15, 15c) based on the images captured.
A method performed by a data processing node for handling a usage policy (P1, P2) pertaining to source data (D1, D2) generated by at least one source node (300a, 300b), the usage policy (P1, P2) dictating permission to access and use the source data (D1, D2), the method comprising: - receiving the source data (D1, D2) and the usage policy (P1, P2) together with an associated source signature (Sig1, Sig2) from the at least one source node (300a, 300b), wherein the associated source signature (Sig1, Sig2) has been calculated based on an identification (Id_D1, Id_D2) of the source data (D1, D2) and the usage policy (P1, P2) of the source data (D1, D2), - generating new data based on the received source data (D1, D2) while complying with the usage policy (P1, P2) of the source data (D1, D2), - calculating a new signature based on an identification (Id_D3) of the new data and at least one of: the usage policy (P1, P2) of the source data (D1, D2), and a new usage policy pertaining to the generated new data and covering the usage policy (P1, P2) of the source data (D1, D2), and - providing the new data, the usage policies (P1, P2, P3), and the associated signatures (Sig1, Sig2, Sig3) to a data receiving node, thereby enabling the data receiving node to verify and comply with the provided usage policies (P1, P2, P3) based on the respective associated signatures (Sig1, Sig2, Sig3). - receiving the source data (D1, D2) and the usage policy (P1, P2) together with an associated source signature (Sig1, Sig2) from the at least one source node (300a, 300b), wherein the associated source signature (Sig1, Sig2) has been calculated based on an identification (Id_D1, Id_D2) of the source data (D1, D2) and the usage policy (P1, P2) of the source data (D1, D2), - generating new data based on the received source data (D1, D2) while complying with the usage policy (P1, P2) of the source data (D1, D2), - calculating a new signature based on an identification (Id_D3) of the new data and at least one of: the usage policy (P1, P2) of the source data (D1, D2), and a new usage policy pertaining to the generated new data and covering the usage policy (P1, P2) of the source data (D1, D2), and - providing the new data, the usage policies (P1, P2, P3), and the associated signatures (Sig1, Sig2, Sig3) to a data receiving node, thereby enabling the data receiving node to verify and comply with the provided usage policies (P1, P2, P3) based on the respective associated signatures (Sig1, Sig2, Sig3).
Method for counting an absolute number of molecules of or a concentration of a substance to be measured using an immunoanalysis device, said method including: generating a reactant by reacting a sample solution containing the substance to be measured and a capture molecule binding to the substance to be measured by antigen-antibody reaction; supplying said reactant to the immunoanalysis device, and measuring a signal from the immunoanalysis device, wherein the measuring step includes obtaining signal information and information on a position on the immunoanalysis device in which the signal is emitted, said method further including reacting a sample solution containing a substance to be measured with a microparticle binding to the substance to be measured through a capture molecule by antigen-antibody reaction and generating a labeled reactant molecule (108, 1205, 1505) with a fluorescent pigment label, said capture molecule being immobilized on said microparticle through a binding molecule, characterized in that the immunoanalysis device has two or more immobilizing means which are arranged on a support base material in a spatially separated state, said immobilizing means immobilizing each molecule of the substance to be measured individually by: • immobilizing only one microparticle on one immobilizing means; • immobilizing only one capture molecule on one microparticle through said binding molecule; such that said step of reacting the sample solution containing a substance to be measured with the microparticle results in only one fluorescent pigment label (1207, 1507) being immobilized on each microparticle via a secondary antibody reacting with the substance to be measured and each labeled reactant molecule (108, 1205, 1505) being placed in a spatially separated certain position on said support base material, said method further including the step of counting the number of fluorescent pigment labels (1207,1507) and/or determining the concentration of the substance to be measured using said measuring means. generating a reactant by reacting a sample solution containing the substance to be measured and a capture molecule binding to the substance to be measured by antigen-antibody reaction; supplying said reactant to the immunoanalysis device, and measuring a signal from the immunoanalysis device, • immobilizing only one microparticle on one immobilizing means; • immobilizing only one capture molecule on one microparticle through said binding molecule;
A method of operating a system for pumping a fluid, which system comprises: - a pump for pumping the fluid, and - a variable speed motor for driving the pump, which method comprises the steps of: - identifying a first system parameter, - identifying a second system parameter which is a function of the torque of the pump, - setting a target value (P1 0) for the first system parameter, - monitoring the first system parameter, - establishing a target value (P2o) for the second system parameter as a function of the difference between the monitored value (P1 m) and the target value (P1 0) of the first system parameter, - monitoring the second system parameter, and - regulating the rotational speed of the pump such that the difference between a monitored value (P2 m) and the target value (P2o) of the second system parameter is minimised. - a pump for pumping the fluid, and - a variable speed motor for driving the pump, - identifying a first system parameter, - identifying a second system parameter which is a function of the torque of the pump, - setting a target value (P1 0) for the first system parameter, - monitoring the first system parameter, - establishing a target value (P2o) for the second system parameter as a function of the difference between the monitored value (P1 m) and the target value (P1 0) of the first system parameter, - monitoring the second system parameter, and - regulating the rotational speed of the pump such that the difference between a monitored value (P2 m) and the target value (P2o) of the second system parameter is minimised.
A braking device for an electric drive motor, in particular a drive motor with an armature shaft projecting over a motor housing, which has at least one braking element and an energy storage device, wherein the energy storage device applies a braking force permanently onto a friction surface of the braking element, characterized in that the energy storage device and braking element are integrally formed of the same material.
An illumination device comprising: - a plurality of light sources emitting light along an optical axis, said light sources comprises a converting material capable of converting light into other wavelengths; - an optical gate arranged along the optical axis; - a light collector arranged between said plurality of light sources and said optical gate, said light collector is adapted to collect light from the light sources, wherein the light collector comprises a plurality of lenslets (113, 413) adapted to collect light from the light sources and adapted to convert the collected light into a plurality of light beams so that the light beams propagate along said optical axis and through said optical gate, where each of said lenslets comprises an entrance surface where said light enters the lenslet and an exit surface where the light exits the lenslet; - an optical projecting system adapted to collect at least a part of said light beams and adapted to project at least a part of said light along said optical axis; wherein said illumination device comprises a retro-reflector (119A, 119B, 119C) arranged between said light collector and said plurality of light sources, said retro-reflector is configured to receive at least a part of said light emitted by said light sources and to reflect at least a part (121A, 121B, 121C, 121D) of the received light back to said converting material of at least one of said light sources, characterized in that said retro-reflector comprises a ring shaped retro-reflector arranged around one of said light sources and arranged such that the entrance surface (114, 414) of one of said lenslets (113, 413) is arranged in or above the opening of said ring shaped retro-reflector, wherein that said ring shaped retro-reflector is integrated into one common retro-reflector body and that said illumination device comprises a plurality of said ring-shaped retro-reflectors and that each of said ring-shaped retro-reflector is associated with a corresponding light source and a corresponding lenslet. - a plurality of light sources emitting light along an optical axis, said light sources comprises a converting material capable of converting light into other wavelengths; - an optical gate arranged along the optical axis; - a light collector arranged between said plurality of light sources and said optical gate, said light collector is adapted to collect light from the light sources, wherein the light collector comprises a plurality of lenslets (113, 413) adapted to collect light from the light sources and adapted to convert the collected light into a plurality of light beams so that the light beams propagate along said optical axis and through said optical gate, where each of said lenslets comprises an entrance surface where said light enters the lenslet and an exit surface where the light exits the lenslet; - an optical projecting system adapted to collect at least a part of said light beams and adapted to project at least a part of said light along said optical axis;
Method for material utilization of polyurethanes wherein the starting material is coarsely crushed, then suspended and an enzyme added to it, and the hydrolysis of the polyurethane is conducted in water or a polar solvent mixture containing water by means of at least one hydrolase of class EC 3, characterised in that the polar solvent is partly led off and regenerated in a separate process and the reaction products being extracted from the reaction equilibrium by means of extraction using an non-polar solvent.
A cleaning device, comprising: a main body housing, an inner surface of the main body housing forming an accommodating space, a gripping portion being arranged on an outer surface of the main body housing, and one or more through holes communicating the accommodating space with the outside being arranged on the main body housing; a cleaning liquid tank, accommodated within the accommodating space, one or more liquid outlets being formed on the cleaning liquid tank and fitted with the one or more through holes; one or more pressure sensors, arranged on the gripping portion; characterized in that the cleaning device further comprises a flow controller, comprising a control module and flow limiters, the flow limiters being movably fitted with one or more the liquid outlets, the control module being electrically connected to the one or more pressure sensors to drive the flow limiters and change flow limiting area of the flow limiters fitted with the liquid outlet, according to a pressure signal transmitted by the one or more pressure sensors. a main body housing, an inner surface of the main body housing forming an accommodating space, a gripping portion being arranged on an outer surface of the main body housing, and one or more through holes communicating the accommodating space with the outside being arranged on the main body housing; a cleaning liquid tank, accommodated within the accommodating space, one or more liquid outlets being formed on the cleaning liquid tank and fitted with the one or more through holes; one or more pressure sensors, arranged on the gripping portion; characterized in that the cleaning device further comprises a flow controller, comprising a control module and flow limiters, the flow limiters being movably fitted with one or more the liquid outlets, the control module being electrically connected to the one or more pressure sensors to drive the flow limiters and change flow limiting area of the flow limiters fitted with the liquid outlet, according to a pressure signal transmitted by the one or more pressure sensors.
An electronic device, comprising: a main board support, a main board upper-cover, a first camera, and a second camera, wherein a cavity is enclosed between the main board support and the main board upper-cover, the first camera and the second camera are both disposed in the cavity, and a gap is formed between the first camera and the second camera; the main board upper-cover has a first support part; characterized in that the first support part is located between the first camera and the second camera and extends toward the gap; the electronic device further comprises a support member, wherein the support member is connected to the main board support, at least a part, away from the main board support, of the support member is made of a shape memory alloy, and at least the part, away from the main board support, of the support member is deformable between a first shape and a second shape, wherein in the first shape, at least the part, away from the main board support, of the support member is located in the gap, in the second shape, at least the part, away from the main board support, of the support member forms a second support part, and the second support part abuts against the first support part, and along a distribution direction of the first camera and the second camera, a size of the second support part is larger than that of the gap. a cavity is enclosed between the main board support and the main board upper-cover, the first camera and the second camera are both disposed in the cavity, and a gap is formed between the first camera and the second camera; the main board upper-cover has a first support part; characterized in that the first support part is located between the first camera and the second camera and extends toward the gap; the electronic device further comprises a support member, wherein the support member is connected to the main board support, at least a part, away from the main board support, of the support member is made of a shape memory alloy, and at least the part, away from the main board support, of the support member is deformable between a first shape and a second shape, wherein in the first shape, at least the part, away from the main board support, of the support member is located in the gap, in the second shape, at least the part, away from the main board support, of the support member forms a second support part, and the second support part abuts against the first support part, and along a distribution direction of the first camera and the second camera, a size of the second support part is larger than that of the gap.
A method for data transmission, by a transmitting node, in a communication network, the method comprising: generating (202, 204) a medium access control, MAC, protocol data unit, PDU, comprising a MAC service data unit, SDU, and a subheader; and transmitting the MAC PDU, wherein the subheader comprises a format indicator field and a length field comprising a plurality of bits, wherein the plurality of bits indicate a length of the MAC SDU and are continuous in the MAC PDU, wherein the subheader is placed in front of the MAC SDU in the MAC PDU, wherein a value of the format indicator field indicates a size of the length field, wherein when the value of the format indicator field is set to one, the value of the format indicator field indicates that the size of the length field is 16 bits, and wherein when the value of the format indicator field is set to zero, the value of the format indicator field indicates that the size of the length field is 8 bits. generating (202, 204) a medium access control, MAC, protocol data unit, PDU, comprising a MAC service data unit, SDU, and a subheader; and transmitting the MAC PDU, wherein the subheader comprises a format indicator field and a length field comprising a plurality of bits, wherein the plurality of bits indicate a length of the MAC SDU and are continuous in the MAC PDU, wherein the subheader is placed in front of the MAC SDU in the MAC PDU, wherein a value of the format indicator field indicates a size of the length field, wherein when the value of the format indicator field is set to one, the value of the format indicator field indicates that the size of the length field is 16 bits, and wherein when the value of the format indicator field is set to zero, the value of the format indicator field indicates that the size of the length field is 8 bits.
A message authentication method in a communication system, in which a plurality of nodes are connected via a network and in which a counter value that is stored in each of the respective nodes of the plurality of nodes is incremented every time a main message is transported on the network, the message authentication method comprising: a step of transmitting, by a transmission node, the main message; a step of incrementing, by the transmission node, the counter value stored in the transmission node when transmitting the main message; a step of transmitting, by the transmission node, an MAC message containing a message authentication code that is produced based on the main message and the counter value; a step of receiving, by a reception node, the main message and the MAC message; a step of incrementing, by the reception node, a counter value stored in the reception node when the main message is received; and a step of verifying, by the reception node, validity of the main message according to whether or not the message authentication code that is produced based on the received main message and the counter value stored in the reception node matches the message authentication code contained in the received MAC message. a step of transmitting, by a transmission node, the main message; a step of incrementing, by the transmission node, the counter value stored in the transmission node when transmitting the main message; a step of transmitting, by the transmission node, an MAC message containing a message authentication code that is produced based on the main message and the counter value; a step of receiving, by a reception node, the main message and the MAC message; a step of incrementing, by the reception node, a counter value stored in the reception node when the main message is received; and a step of verifying, by the reception node, validity of the main message according to whether or not the message authentication code that is produced based on the received main message and the counter value stored in the reception node matches the message authentication code contained in the received MAC message.
A consolidated impact penetration resistant laminate comprising a plurality of alternating layers of (i) non-fibrous ultra-high molecular weight polyethylene monolayers and (ii) a thermoplastic adhesive, the adhesive having a basis weight of no greater than 5 gsm and a zero-shear-rate viscosity, determined from an oscillating disc rheometer in a frequency sweep between 0.1 rad/s and 100 rad/s, conducted per ASTM D 4440 at 125°C, and calculated from fitting to a Carrea-Yasuda four parameter model, of at least 10,000 Pa-s, wherein (a) at least 90 percent of the monolayers are arranged such that the orientation of one monolayer is offset with respect to the orientation of an adjacent monolayer, and (b) the modulus of elasticity through the thickness of the laminate, as measured by Test Method A, is at least 3 GPa. (a) at least 90 percent of the monolayers are arranged such that the orientation of one monolayer is offset with respect to the orientation of an adjacent monolayer, and (b) the modulus of elasticity through the thickness of the laminate, as measured by Test Method A, is at least 3 GPa.
A method of making a barrier stack comprising: depositing the polymeric decoupling layer on a substrate; depositing a first inorganic layer on the decoupling layer under a first set of conditions wherein an ion and neutral energy arriving at the substrate is less than 20 eV so that the first inorganic layer is not a barrier layer, wherein a temperature of the substrate is less than 150°C; and depositing a second inorganic layer on the first inorganic layer under a second set of conditions wherein an ion and neutral energy arriving at the substrate is greater than 50 eV so that the second inorganic layer is a barrier layer. depositing the polymeric decoupling layer on a substrate; depositing a first inorganic layer on the decoupling layer under a first set of conditions wherein an ion and neutral energy arriving at the substrate is less than 20 eV so that the first inorganic layer is not a barrier layer, wherein a temperature of the substrate is less than 150°C; and depositing a second inorganic layer on the first inorganic layer under a second set of conditions wherein an ion and neutral energy arriving at the substrate is greater than 50 eV so that the second inorganic layer is a barrier layer.