mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a liquid-tight partition, characterized in that said method comprises at least the following successive steps: (a) Laying, on a surface (2, 3) associated with a space to be partitioned, a water-proof material having no liquid-retention capacity, (b) Providing a groove at the surface of said water-proof material, (c) Filling said groove with liquid-tight sealant, (d) Positioning a wall in said groove filled with sealant, (e) Applying a layer of adhesive onto said water-proof material, (f) Laying an outer coating on said layer of adhesive, (g) Filling the groove with sealant (8, 8') between the wall and the outer coating so that the sealant is flush with the surface of said outer coating. (a) Laying, on a surface (2, 3) associated with a space to be partitioned, a water-proof material having no liquid-retention capacity, (b) Providing a groove at the surface of said water-proof material, (c) Filling said groove with liquid-tight sealant, (d) Positioning a wall in said groove filled with sealant, (e) Applying a layer of adhesive onto said water-proof material, (f) Laying an outer coating on said layer of adhesive, (g) Filling the groove with sealant (8, 8') between the wall and the outer coating so that the sealant is flush with the surface of said outer coating.
Detecting apparatus adapted to detect at least one physical value in areas of a brain of a subject, the detecting apparatus comprising: - at least two sensors (24, 26, 28, 46), with at least one sensor being an ultrasound transducer adapted to produce ultrasound waves, the ultrasound transducer being adapted to detect cerebral blood volume and flow through Doppler sequences or contrast agents, the detecting apparatus comprising at least two sensors (24, 26, 28, 46) adapted to measure different physical quantities, and - a positioning device defining several compartments, each compartment being adapted to hold a sensor (24, 26, 28, 46) and each compartment being located at predetermined location, the positioning device comprising a holder adapted to be fixed on the skull of a subject, the positioning device being adapted to be maintained on the head of the subject using the holder, the compartments being removable cases. - at least two sensors (24, 26, 28, 46), with at least one sensor being an ultrasound transducer adapted to produce ultrasound waves, the ultrasound transducer being adapted to detect cerebral blood volume and flow through Doppler sequences or contrast agents, the detecting apparatus comprising at least two sensors (24, 26, 28, 46) adapted to measure different physical quantities, and - a positioning device defining several compartments, each compartment being adapted to hold a sensor (24, 26, 28, 46) and each compartment being located at predetermined location, the positioning device comprising a holder adapted to be fixed on the skull of a subject, the positioning device being adapted to be maintained on the head of the subject using the holder,
A method of facilitating user interactions with a graphical user interface to build a workflow for responding to a security event on a computing network, the graphical user interface generated and rendered on a display of a computer system connected to the computing network, by executing software with a processor of the computer system, the method comprising: providing a plurality of task stencils within the graphical user interface for selection by a user to design the workflow, each task stencil from the plurality of task stencils representing a task from a plurality of tasks that can be, if selected, performed by a plurality of network devices to respond to the security event; receiving from the user a selection of a task stencil from the plurality of task stencils, the task stencil corresponding to a task from the plurality of tasks; receiving from the user an input to configure the task, the input including a selection of a plug-in module from a plurality of plug-in modules, a selection of a network device from the plurality of network devices registered with the plug-in module, and a selection of an activation command for the network device and from a plurality of activation commands associated with the plug-in module, each plug-in module of the plurality of plug-in modules configured to interact with at least one network device from the plurality of network devices using application program interface protocols associated with that plug-in module; and responding to the security event by executing the activation command to activate, over the computing network, the network device to protect the computing network. providing a plurality of task stencils within the graphical user interface for selection by a user to design the workflow, each task stencil from the plurality of task stencils representing a task from a plurality of tasks that can be, if selected, performed by a plurality of network devices to respond to the security event; receiving from the user a selection of a task stencil from the plurality of task stencils, the task stencil corresponding to a task from the plurality of tasks; receiving from the user an input to configure the task, the input including a selection of a plug-in module from a plurality of plug-in modules, a selection of a network device from the plurality of network devices registered with the plug-in module, and a selection of an activation command for the network device and from a plurality of activation commands associated with the plug-in module, each plug-in module of the plurality of plug-in modules configured to interact with at least one network device from the plurality of network devices using application program interface protocols associated with that plug-in module; and responding to the security event by executing the activation command to activate, over the computing network, the network device to protect the computing network.
A nitrogen-containing heterocyclic compound represented by formula: (wherein R 6 represents a hydrogen atom, R 7 represents lower alkyl substituted with fluorine, R 8, R 9, R 10, and R 11 each represent a hydrogen atom, R 1 represents lower alkyl which may be substituted with cycloalkyl, and R 3 represents pyridin-3-yl substituted with a heterocyclic group, wherein the heterocyclic group may be substituted with lower alkyl) or a pharmaceutically acceptable salt thereof; wherein lower alkyl and the lower alkyl moiety of lower alkyl substituted with fluorine is a linear or branched alkyl having 1 to 10 carbon atoms. R 6 represents a hydrogen atom, R 7 represents lower alkyl substituted with fluorine, R 8, R 9, R 10, and R 11 each represent a hydrogen atom, R 1 represents lower alkyl which may be substituted with cycloalkyl, and R 3 represents pyridin-3-yl substituted with a heterocyclic group, wherein the heterocyclic group may be substituted with lower alkyl)
A self-propelled agricultural machine, comprising: • elements for gathering and/or processing crops; • an engine operable to travel the machine through a first driving mechanism and to drive the operation of said elements through a second driving mechanism; and • a control unit for controlling engine RPM, wherein the control unit is configured for controlling the engine RPM (n i) on the basis of a target RPM (n s), which is in turn based on an assessment of the imposed engine load (T i), wherein a total load range between 0% and 100% of the maximum load comprises: • a low load range (13/20/30), where the target RPM remains at a constant target value; • at least one medium load range (14/21, 22/31, 33), where the target RPM is a continuously rising function of the load; • a high load range (10/23/34), where the RPM is determined by the torque curve of the engine, and wherein the rate of change of the target RPM (n s) within said medium load range (21/31) is itself a rising function of the extent to which the imposed load either respectively exceeds the sub-range upper limit or undershoots the sub-range lower limit. • elements for gathering and/or processing crops; • an engine operable to travel the machine through a first driving mechanism and to drive the operation of said elements through a second driving mechanism; and • a control unit for controlling engine RPM, • a low load range (13/20/30), where the target RPM remains at a constant target value; • at least one medium load range (14/21, 22/31, 33), where the target RPM is a continuously rising function of the load; • a high load range (10/23/34), where the RPM is determined by the torque curve of the engine, and
A method of manufacturing an airflow directing segment for a smoking article, comprising the steps of: feeding a substantially continuous web of material, the web material having a first longitudinal edge and a second longitudinal edge; applying adhesive to a first side of the web material, adjacent the first edge of the web material; forming the web material into a channel; forming the channel of web material into a closed tube, the first edge overlapping with the second edge; compressing the tube of web material to adhere the first side of the first edge to the second side of the second edge; feeding at least one substantially continuous porous material about the formed tube (126, 802) of web material to form a substantially continuous airflow directing segment; and cutting the substantially continuous airflow directing segment to form discrete airflow directing segments. feeding a substantially continuous web of material, the web material having a first longitudinal edge and a second longitudinal edge; applying adhesive to a first side of the web material, adjacent the first edge of the web material; forming the web material into a channel; forming the channel of web material into a closed tube, the first edge overlapping with the second edge; compressing the tube of web material to adhere the first side of the first edge to the second side of the second edge; feeding at least one substantially continuous porous material about the formed tube (126, 802) of web material to form a substantially continuous airflow directing segment; and cutting the substantially continuous airflow directing segment to form discrete airflow directing segments.
A method for electrically conductively connecting a contact part consisting of a contact sleeve and a mounting bracket based on copper- or aluminum to a conductor, which has a plurality of aluminum-containing individual wires, wherein the method comprises the steps: - Placement (S1, S5) of the contact sleeve on the conductor, and - mechanical connection (S2, S6) of the contact sleeve to the conductor, wherein the method is characterized by the steps: - Placement of the mounting bracket, so that a projection on an end face of the contact sleeve comes into engagement with a corresponding feed-through on the mounting bracket and holds the mounting bracket on the contact sleeve, - integral connection of the individual wires of the conductor with one another and with the contact sleeve, and - integral connection (S4, S7) of the mounting bracket on the end face of the contact sleeve. - Placement (S1, S5) of the contact sleeve on the conductor, and - mechanical connection (S2, S6) of the contact sleeve to the conductor, wherein the method is characterized by the steps: - Placement of the mounting bracket, so that a projection on an end face of the contact sleeve comes into engagement with a corresponding feed-through on the mounting bracket and holds the mounting bracket on the contact sleeve, - integral connection of the individual wires of the conductor with one another and with the contact sleeve, and - integral connection (S4, S7) of the mounting bracket on the end face of the contact sleeve.
Multilayer film body for labelling a security document, in particular a banknote or an ID document, which has at least one coloured filter layer and at least one changing layer having an electrically controllable transmission factor and/or an electrically controllable colourfulness level, which mutually overlap at least partially, characterised in that, the film body comprises two coloured filter layers (2,3) of different colours and a changing layer which is arranged therebetween having an electrically controllable transmission factor.
Manually operated machine tool, in particular sawing machine, with a tool mount located on a machine part for accommodating a working tool, in particular a saw blade, and with an in particular electric drive motor for driving the tool mount, wherein the manually operated machine tool has a guide body, in particular a guide plate, for guidance on a workpiece surface, wherein the machine part with the tool mount is mounted for movement relative to the guide body between a first and at least one second depth position (T1, T2) by means of a depth adjustment bearing, wherein the manually operated machine tool has a securing device for securing the movement of the tool mount for an exchange of the working tool, wherein the securing device can be moved by an actuating element between a securing position, in which the securing device blocks the tool mount mechanically against being driven by the drive motor, and an operating position, in which the drive motor and/or the tool mount is/are enabled for an operation of the manually operated machine tool, wherein the manually operated machine tool has a holding device with a first holding element for holding, in particular for latching, the machine part in the first depth position, characterised in that the actuating element is motion-coupled to the first holding element in such a way that it is moved into a release position relative to the hold, in particular the latch, in the first depth position when the securing device is moved into the securing position, and in that therefore the machine part with the tool mount can be moved from the first depth position into the at least one second depth position, which serves as a tool change position and in which the tool mount is accessible for exchanging the working tool.
A prosthesis comprising: a graft material comprising an inner surface and an outer surface; a plurality of needle-created openings extending through the graft material between the inner surface and the outer surface, each opening being surrounded by a fused region of the graft material; characterised by a bioactive material within the openings on the outer surface of the graft material. a graft material comprising an inner surface and an outer surface; a plurality of needle-created openings extending through the graft material between the inner surface and the outer surface, each opening being surrounded by a fused region of the graft material; characterised by a bioactive material within the openings on the outer surface of the graft material.
A system for determining a sleep stage transition of a person, the system comprising: heart rate detecting means configured for detecting a heart rate of the person; movement detecting means configured for detecting a movement of a part of the body of the person, wherein the movement is caused by a skeletal muscle of the body; recording means configured for recording the detected heart rate and the detected movement of the part of the body; heart rate classifying means configured for classifying the recorded heart rate of the person into at least one heart rate class and at least one heart rate variability class; movement classifying means configured for classifying the recorded movement into at least one movement class; and determining means configured for determining the sleep stage transition of the person based at least partially on the at least one heart rate class, the at least one heart rate variability class, and the at least one movement class, characterised in that the determining means are further configured for identifying a specific combination of a heart rate class, a heart rate variability class, and a movement class within a specific time period, and wherein the determining means are configured for determining the sleep stage transition based on the identified specific combination. heart rate detecting means configured for detecting a heart rate of the person; movement detecting means configured for detecting a movement of a part of the body of the person, wherein the movement is caused by a skeletal muscle of the body; recording means configured for recording the detected heart rate and the detected movement of the part of the body; heart rate classifying means configured for classifying the recorded heart rate of the person into at least one heart rate class and at least one heart rate variability class; movement classifying means configured for classifying the recorded movement into at least one movement class; and determining means configured for determining the sleep stage transition of the person based at least partially on the at least one heart rate class, the at least one heart rate variability class, and the at least one movement class, characterised in that the determining means are further configured for identifying a specific combination of a heart rate class, a heart rate variability class, and a movement class within a specific time period, and wherein the determining means are configured for determining the sleep stage transition based on the identified specific combination.
Mastic composition consisting substantially of a bituminous binder material comprising recycle bitumen and granular asphalt aggregates with a diameter of at most 2 mm, wherein the granular asphalt aggregates consist for a proportion of at least 50 %wt, based on the weight of the aggregates, of reclaimed granular asphalt aggregates that have a diameter of at most 2 mm, and wherein the reclaimed granular asphalt aggregates comprise recycle bitumen ranging from 6 to 25 %wt, based on the weight of the reclaimed granular asphalt aggregates, and wherein the amount of bituminous binder material is at least 15%wt, based on the weight of the bituminous binder material and the granular asphalt aggregates.
A method for manufacturing a microelectromechanical systems (MEMS) device, the method comprising: forming a first polysilicon layer over a substrate; forming a sacrificial layer over the first polysilicon layer; forming a plurality of nanoclusters on the sacrificial layer; etching the sacrificial layer using a wet etch process subsequent to said formation of the plurality of nanoclusters, wherein the wet etch is selective to the sacrificial layer, the nanoclusters provide a micro-masking layer for said etching, and said etching increases roughness of the surface of the sacrificial layer as compared to the roughness of the surface upon said forming the sacrificial layer; forming a second polysilicon layer on the sacrificial layer subsequent to said etching of the sacrificial layer, wherein each of the plurality of nanoclusters is of sufficient size to increase a surface roughness of the second polysilicon layer and said etching is performed for a duration sufficient to impart the surface roughness on the second polysil icon layer subsequent to the removal of the sacrificial layer. forming a first polysilicon layer over a substrate; forming a sacrificial layer over the first polysilicon layer; forming a plurality of nanoclusters on the sacrificial layer; etching the sacrificial layer using a wet etch process subsequent to said formation of the plurality of nanoclusters, wherein the wet etch is selective to the sacrificial layer, the nanoclusters provide a micro-masking layer for said etching, and said etching increases roughness of the surface of the sacrificial layer as compared to the roughness of the surface upon said forming the sacrificial layer; forming a second polysilicon layer on the sacrificial layer subsequent to said etching of the sacrificial layer, wherein each of the plurality of nanoclusters is of sufficient size to increase a surface roughness of the second polysilicon layer and said etching is performed for a duration sufficient to impart the surface roughness on the second polysil icon layer subsequent to the removal of the sacrificial layer.
A superalloy cast component comprising: a cast body having a single crystal microstructure and an internal corner bounding an internal cavity, the single crystal microstructure defining a critical internal residual stress with respect to investment casting of the cast body using a refractory metal core beyond which the single crystal microstructure recrystallizes under a predetermined condition, characterized in that the internal corner defines a corner radius that is greater than a critical corner radius below which an amount of internal residual stress in the single crystal microstructure exceeds the critical internal residual stress, and wherein the internal cavity is a micropassage having a cross-section taken perpendicular to a longitudinal direction of the cast body, the cross-section having a maximum dimension width, W, less than 0.51 mm (20 mils) at the corner radius, and wherein a ratio of the maximum width W to the corner radius R is no greater than 10:1 (ten to one), the predetermined condition being greater than 5% strain locally at the internal corner.
A stable liposomal formulation for use in treating an ocular disorder by ocular delivery via subconjunctival injection, the formulation comprising a liposome including at least one lipid bilayer that contains palmitoyl oleoyl phosphatidyl choline (POPC), and latanoprost encapsulated in the liposome, wherein the liposome has a diameter of less than 2 μm.
A method of terminating a cable, comprising: providing a cable having at least one optical transmission component; providing a retention body having an insertion end and a passage extending at least partially through a length of the retention body; preparing a first end of the cable; inserting the first end of the cable and an interior seal component into the passage of the retention body so that the interior seal component is located at the first end of the cable; and characterized by introducing a filler material into the passage of the retention body so as to fix the position of the cable relative to the retention body, wherein the filler material is introduced as a liquid into the passage of the retention body and is selected from the group consisting of epoxy, adhesive, resin and glue. providing a cable having at least one optical transmission component; providing a retention body having an insertion end and a passage extending at least partially through a length of the retention body; preparing a first end of the cable; inserting the first end of the cable and an interior seal component into the passage of the retention body so that the interior seal component is located at the first end of the cable; and characterized by introducing a filler material into the passage of the retention body so as to fix the position of the cable relative to the retention body, wherein the filler material is introduced as a liquid into the passage of the retention body and is selected from the group consisting of epoxy, adhesive, resin and glue.
A data sending method performed by a terminal device, the method comprising: receiving, configuration information from a network device, wherein the configuration information is used to configure a non-scheduling resource, which is a periodic resource pre-allocated by the network; determining, based on the configuration information, a non-scheduling resource for data transmission; characterised in that it further comprises starting, when grant resource indication information is received from the network device, a first timer, wherein the non-scheduling resource for data transmission is not used for sending uplink data within duration of the first timer. receiving, configuration information from a network device, wherein the configuration information is used to configure a non-scheduling resource, which is a periodic resource pre-allocated by the network; determining, based on the configuration information, a non-scheduling resource for data transmission; characterised in that it further comprises starting, when grant resource indication information is received from the network device, a first timer, wherein the non-scheduling resource for data transmission is not used for sending uplink data within duration of the first timer.