mhurhangee/ep-ind-claims huggingface dataset:
A bracket arrangement for retrofitting a side panel to an existing side guard system (2, 2') of a vehicle, a semitrailer or a trailer, which side guard system comprises one or more horizontal longitudinal supports, wherein the bracket arrangement comprises - an elongated first bracket, which is attachable to the side guard system (2, 2') and - an elongated second bracket, which is releasably attachable to the first bracket, - one or more fastening elements (8, 8') for attaching the first bracket to the side guard system (2, 2'), which elements (8, 8') are arrangeable between the first bracket and the second bracket, whereby the side panel is attachable to one of said first and second brackets, and the bracket arrangement is attached to the side guard system so that the side guard system (2, 2') is between the first bracket and the second bracket of the bracket arrangement, characterized in that the first bracket comprises an assembling groove (7, 7'), which is mainly in a longitudinal direction of the bracket, whereby a fastening height of the bracket arrangement in relation to the side guard system (2, 2') is arranged to be adjusted by moving the one or more fastening elements (8, 8') of the bracket arrangement in the assembling groove (7, 7') of the bracket. - an elongated first bracket, which is attachable to the side guard system (2, 2') and - an elongated second bracket, which is releasably attachable to the first bracket, - one or more fastening elements (8, 8') for attaching the first bracket to the side guard system (2, 2'), which elements (8, 8') are arrangeable between the first bracket and the second bracket,
A touch device, including a relatively rigid cover element coupled to multiple force sensors positioned along a periphery of the cover element; wherein each of the force sensors is responsive to a displacement of one or more edges of said cover element and includes: first and second pressure sensitive adhesive layers (635, 645); first and second flex circuits (640, 650) disposed between the first and second PSA layers; and at least one of a compressible layer or empty space disposed between the first and second flex circuits; wherein the first and second flex circuits (640, 650) include a set of drive and sense lines acting as a capacitive plate, wherein the first and second flex circuits are configured to form a capacitive sensor; a touch sensor integrated with the cover element; and a sense circuit; wherein a total force applied onto the cover element by a set of multiple contemporaneous touches is distributed to the force sensors; and wherein the sense circuit is configured to: determine, responsive to signals generated by the force sensors in response to the multiple contemporaneous touches, and responsive to an output of the touch sensor generated during the multiple contemporaneous touches, a location and magnitude of force of each of the multiple contemporaneous touches. a relatively rigid cover element coupled to multiple force sensors positioned along a periphery of the cover element; wherein each of the force sensors is responsive to a displacement of one or more edges of said cover element and includes: first and second pressure sensitive adhesive layers (635, 645); first and second flex circuits (640, 650) disposed between the first and second PSA layers; and at least one of a compressible layer or empty space disposed between the first and second flex circuits; wherein the first and second flex circuits (640, 650) include a set of drive and sense lines acting as a capacitive plate, wherein the first and second flex circuits are configured to form a capacitive sensor; first and second pressure sensitive adhesive layers (635, 645); first and second flex circuits (640, 650) disposed between the first and second PSA layers; and at least one of a compressible layer or empty space disposed between the first and second flex circuits; wherein the first and second flex circuits (640, 650) include a set of drive and sense lines acting as a capacitive plate, wherein the first and second flex circuits are configured to form a capacitive sensor; a touch sensor integrated with the cover element; and a sense circuit; wherein a total force applied onto the cover element by a set of multiple contemporaneous touches is distributed to the force sensors; and wherein the sense circuit is configured to: determine, responsive to signals generated by the force sensors in response to the multiple contemporaneous touches, and responsive to an output of the touch sensor generated during the multiple contemporaneous touches, a location and magnitude of force of each of the multiple contemporaneous touches.
An in situ hybridization composition comprising at least one nucleic acid sequence, a polar aprotic solvent in an amount effective to denature double-stranded nucleotide sequences, and a hybridization solution, wherein the polar aprotic solvent is not dimethyl sulfoxide (DMSO), wherein the polar aprotic solvent is: and wherein said composition further comprises at least one additional component selected from the group consisting of: buffering agents, salts, accelerating agents, chelating agents, detergents, and blocking agents, wherein the concentration of sulfolane is 10% to 95% (v/v).
Crystalline aluminosilicate zeolites comprising a MOZ framework type material, wherein the MOZ framework type material contains 3 to 5 wt.-% copper, calculated as CuO and based on the total weight of the respective zeolite.
A system comprising: a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses, wherein the lower intensity electrical stimulation signal has a first stimulation intensity of less than or equal to 80% of a first paresthesia threshold or perception threshold of the patient determined in a first posture of the patient; deliver the lower intensity electrical stimulation signal with the first stimulation intensity to the patient via at least one electrode to a first anatomical location near a spine of the patient; characterized in that the processor is configured to: determine, in response to a change of posture of the patient into a second posture, a second stimulation intensity of less than or equal to 80% of a second paresthesia threshold or perception threshold of the patient, and control the stimulation generator to continue delivering the lower intensity electrical stimulation signal with the second intensity. a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses, wherein the lower intensity electrical stimulation signal has a first stimulation intensity of less than or equal to 80% of a first paresthesia threshold or perception threshold of the patient determined in a first posture of the patient; deliver the lower intensity electrical stimulation signal with the first stimulation intensity to the patient via at least one electrode to a first anatomical location near a spine of the patient; characterized in that the processor is configured to: determine, in response to a change of posture of the patient into a second posture, a second stimulation intensity of less than or equal to 80% of a second paresthesia threshold or perception threshold of the patient, and control the stimulation generator to continue delivering the lower intensity electrical stimulation signal with the second intensity. determine, in response to a change of posture of the patient into a second posture, a second stimulation intensity of less than or equal to 80% of a second paresthesia threshold or perception threshold of the patient, and control the stimulation generator to continue delivering the lower intensity electrical stimulation signal with the second intensity.
Device for electrostimulation and/or iontophoresis comprising a mounting having a first face intended to be placed facing the skin and supporting electrodes configured to be in contact with the skin and a second face opposite the first on which is intended to be arranged an electronic module characterised by the fact that the electronic module is configured to be detachable from the mounting and that the mounting comprises on its first face an electric circuit connecting the electrodes and connection means intended to connect the electric circuit to the electronic module and that the mounting comprises flexible means for partial detachment forming at least one tab supporting the connection means and configured to make it possible to fold back by bending the at least one tab in order to bring said connection means beyond the first face on or beyond the second face in order to connect the electronic module, with the electronic module bearing against the second face of the mounting and arranged between said second face of the mounting and the at least one tab.
Thread clamp for a gripper of a gripper weaving machine comprising a moveable lever having a first contact surface, and comprising a counter-element having a second contact surface arranged opposite to the first contact surface, the first contact surface for cooperating with the second contact surface, wherein the first contact surface is provided with an inwardly arched portion, which inwardly arched portion is curved about an axis parallel to a longitudinal direction of the moveable lever and which inwardly arched portion extends longitudinally along said axis, wherein a curvature of the inwardly arched portion is in the form of a circular arc with a central angle (α) and a radius, wherein the width of the inwardly arched portion is at least twice its height, and wherein the central angle (α) of the circular arc is between about 40° and about 70°.
Process for preparing a porous material, at least comprising the steps of: a) providing a mixture comprising (i) a composition at least comprising an isocyanate composition (A*) comprising a polymeric polyfunctional isocyanate as component (ai) a monomeric polyfunctional isocyanate as component (aii) at least one catalyst as component (ac) and (ii) a solvent, b) reacting the components in the composition obtaining an organic gel, and c) drying of the gel obtained in step b), wherein composition is substantially free of aromatic amines, wherein components (ai), (aii) and (ac) of composition are provided separately from one another, each in a suitable partial amount of the solvent. a) providing a mixture comprising (i) a composition at least comprising an isocyanate composition (A*) comprising a polymeric polyfunctional isocyanate as component (ai) a monomeric polyfunctional isocyanate as component (aii) at least one catalyst as component (ac) and (ii) a solvent, (i) a composition at least comprising an isocyanate composition (A*) comprising a polymeric polyfunctional isocyanate as component (ai) a monomeric polyfunctional isocyanate as component (aii) at least one catalyst as component (ac) and an isocyanate composition (A*) comprising a polymeric polyfunctional isocyanate as component (ai) a monomeric polyfunctional isocyanate as component (aii) a polymeric polyfunctional isocyanate as component (ai) a monomeric polyfunctional isocyanate as component (aii) at least one catalyst as component (ac) (ii) a solvent, b) reacting the components in the composition obtaining an organic gel, and c) drying of the gel obtained in step b),
Electronic assembly (2, 36) for the autonomous control of a system, such as a missile, having a plurality of functional units each comprising a board element populated with electronic modules, which board element has in each case a number of contact locations arranged in at least one row, and having a contact board (12, 38), which has for each board element at least one row of contact receptacles which are directly electrically connected to the contact locations of their board element and these rows point toward a side of the contact board (12, 38) in their longitudinal direction, characterized by a communication unit (22, 40) separate from the contact board (12, 38) and serving for communication with modules of the board elements, said communication unit being connected to the contact board (12, 38) via a plurality of data lines (16, 18), the data lines (16, 18) being contact-connected to the contact board (12, 38) on the side to which the rows point.
A woven preform for a fiber reinforced composite comprising: a plurality of first layers of woven material; and a plurality of second layers of woven material integrally woven with said plurality of first layers; said plurality of second layers extending as structural members between said first layers when the preform is pulled open; and said plurality of first layers and said plurality of second layers defining a plurality of through cells within the preform, characterized in that said preform has a continuous closed perimeter and hoop reinforcements in each cell formed by a series of steps, each step defining a closed path around a cell and a closed path along the perimeter, the steps using a single weft yarn throughout the preform. a plurality of first layers of woven material; and a plurality of second layers of woven material integrally woven with said plurality of first layers; said plurality of second layers extending as structural members between said first layers when the preform is pulled open; and said plurality of first layers and said plurality of second layers defining a plurality of through cells within the preform, characterized in that said preform has a continuous closed perimeter and hoop reinforcements in each cell formed by a series of steps, each step defining a closed path around a cell and a closed path along the perimeter, the steps using a single weft yarn throughout the preform.
A method of manufacturing a surface type heating element, comprising: providing a substrate; coating the substrate with a surface type heating element layer by applying a surface type heating element paste including an alloy component onto the substrate; drying the applied surface type heating element layer; and photonically sintering the dried surface type heating element layer; characterized in that the alloy component is a NiCr alloy component. providing a substrate; coating the substrate with a surface type heating element layer by applying a surface type heating element paste including an alloy component onto the substrate; drying the applied surface type heating element layer; and photonically sintering the dried surface type heating element layer; characterized in that the alloy component is a NiCr alloy component.
A fracture-resistant double shear joint, comprising: a clevis comprising a first end defining a first bore and a second end defining a second bore; a reaction load member defining a third bore, wherein the first bore, the second bore, and the third bore are colinear; a first spacer positioned within the first bore and a second spacer 806 positioned within the second bore; and a shear pin positioned within the first bore, the second bore, and the third bore, wherein the first spacer and the second spacer are configured to space the shear pin from the reaction load member defining the third bore. a clevis comprising a first end defining a first bore and a second end defining a second bore; a reaction load member defining a third bore, wherein the first bore, the second bore, and the third bore are colinear; a first spacer positioned within the first bore and a second spacer 806 positioned within the second bore; and a shear pin positioned within the first bore, the second bore, and the third bore, wherein the first spacer and the second spacer are configured to space the shear pin from the reaction load member defining the third bore.
A secondary battery comprising: an electrode assembly; an electrode tab electrically connected to the electrode assembly and protruding at an end of the electrode assembly; a case accommodating the electrode assembly; a cap plate coupled to the case; and a terminal plate (180, 280, 380) between the cap plate and the electrode assembly and electrically connected to the electrode tab, wherein the electrode tab includes first (121a, 122a) and second (121b, 122b) long sides and a sectional surface (121c, 122c) connecting the first and second long sides, wherein an angle (θ1) between the first long side and the sectional surface is greater than 90 degrees, wherein the terminal plate includes a pair of long sides (181, 281) and a pair of short sides (182, 282) connecting the pair of long sides and shorter than the pair of long sides, and wherein the sectional surface of the electrode tab is obliquely formed so as to correspond to a shape of a portion of one of the long sides of the terminal plate. an electrode assembly; an electrode tab electrically connected to the electrode assembly and protruding at an end of the electrode assembly; a case accommodating the electrode assembly; a cap plate coupled to the case; and a terminal plate (180, 280, 380) between the cap plate and the electrode assembly and electrically connected to the electrode tab, wherein the electrode tab includes first (121a, 122a) and second (121b, 122b) long sides and a sectional surface (121c, 122c) connecting the first and second long sides, wherein an angle (θ1) between the first long side and the sectional surface is greater than 90 degrees, wherein the terminal plate includes a pair of long sides (181, 281) and a pair of short sides (182, 282) connecting the pair of long sides and shorter than the pair of long sides, and wherein the sectional surface of the electrode tab is obliquely formed so as to correspond to a shape of a portion of one of the long sides of the terminal plate.
A compound of formula I: or a pharmaceutically-acceptable salt thereof for use in the treatment of neurogenic orthostatic hypotension in a human patient; wherein the compound is administered once per day to the patient in an amount ranging from 1 mg/day to 20 mg/day and wherein the use is characterized by: (a) an increase in the patient's seated systolic blood pressure; (b) an increase in the patient's standing time; or (c) a decrease in dizziness or lightheadedness experienced by the patient.
A single radio controller, characterized by comprising: a receiving unit, configured to receive a first request message, wherein the first request message is used to request the single radio controller to perform a location update on a user equipment, UE; a processing unit, configured to generate a paging area list of the UE according to the first request message received by the receiving unit, wherein the paging area list comprises a location area identity of a location area of at least one network standard; a sending unit, configured to add the paging area list of the UE generated by the processing unit to a first response message, and send the first response message to the UE; wherein the location area identity of a location area of at least one network standard comprises one or more of a tracking area identity, TAI, a routing area identity, RAI, and a cell identity; and wherein the single radio controller is configured to manage access network devices of different network standards together; wherein the single radio controller is configured to be integrated to an access network device; wherein the first response message further carries duration information of a location update timer; and the processing unit is further configured to: start the location update timer, and if a message sent by the UE is still not received by the receiving unit when the location update timer expires, delete the location area hierarchical management context of the UE, wherein duration of the location update timer is duration indicated by the duration information of the location update timer. a receiving unit, configured to receive a first request message, wherein the first request message is used to request the single radio controller to perform a location update on a user equipment, UE; a processing unit, configured to generate a paging area list of the UE according to the first request message received by the receiving unit, wherein the paging area list comprises a location area identity of a location area of at least one network standard; a sending unit, configured to add the paging area list of the UE generated by the processing unit to a first response message, and send the first response message to the UE; wherein the location area identity of a location area of at least one network standard comprises one or more of a tracking area identity, TAI, a routing area identity, RAI, and a cell identity; and wherein the single radio controller is configured to manage access network devices of different network standards together; wherein the single radio controller is configured to be integrated to an access network device; wherein the first response message further carries duration information of a location update timer; and the processing unit is further configured to: start the location update timer, and if a message sent by the UE is still not received by the receiving unit when the location update timer expires, delete the location area hierarchical management context of the UE, wherein duration of the location update timer is duration indicated by the duration information of the location update timer.
Computer-implemented method for managing a plurality of sets of configuration parameters for laboratory management systems including an inputting procedure for being inputted with a first set of configuration parameter values, the first set being referred to here as parent set; a creating procedure, referred to here as child set creating procedure, for creating at least one second set of configuration parameter values based on the parent set, each second set being referred to here as child set, wherein creating a child set based on the parent set includes: causing the child set to inherit all the configuration parameter values of the parent set, wherein, after the step of causing, if a child set's configuration parameter value inherited from the parent set is modified, the child set's configuration parameter whose value has been modified is regarded as a child-specific parameter; and a modifying procedure for modifying a configuration parameter value of the parent set, wherein the modification causes the value of the corresponding configuration parameter of a child set to be modified if the configuration parameter is not a child-specific parameter. an inputting procedure for being inputted with a first set of configuration parameter values, the first set being referred to here as parent set; a creating procedure, referred to here as child set creating procedure, for creating at least one second set of configuration parameter values based on the parent set, each second set being referred to here as child set, wherein creating a child set based on the parent set includes: causing the child set to inherit all the configuration parameter values of the parent set, wherein, after the step of causing, if a child set's configuration parameter value inherited from the parent set is modified, the child set's configuration parameter whose value has been modified is regarded as a child-specific parameter; and causing the child set to inherit all the configuration parameter values of the parent set, wherein, after the step of causing, if a child set's configuration parameter value inherited from the parent set is modified, the child set's configuration parameter whose value has been modified is regarded as a child-specific parameter; and a modifying procedure for modifying a configuration parameter value of the parent set, wherein the modification causes the value of the corresponding configuration parameter of a child set to be modified if the configuration parameter is not a child-specific parameter.