mhurhangee/ep-ind-claims huggingface dataset:
A composite comprising: a polymer; and a gelatin or collagen; wherein (i) at least one of said polymer and said gelatin or collagen is conjugated with a phenol-containing moiety, said polymer is less cell-adhesive than said gelatin or collagen, said at least one of said polymer and said gelatin or collagen is crosslinked to form a matrix, and said composite comprises discrete regions that are rich in one of said polymer and said gelatin or collagen; or (ii) said polymer and a first phenol-containing moiety form a first conjugate, said gelatin or collagen and a second phenol-containing moiety form a second conjugate, said polymer is selected so that said first conjugate is less cell-adhesive than said second conjugate, at least one of said first and second conjugates is crosslinked to form a matrix, and said composite comprises discrete regions that are rich in one of said first and second conjugates. a polymer; and a gelatin or collagen; (i) at least one of said polymer and said gelatin or collagen is conjugated with a phenol-containing moiety, said polymer is less cell-adhesive than said gelatin or collagen, said at least one of said polymer and said gelatin or collagen is crosslinked to form a matrix, and said composite comprises discrete regions that are rich in one of said polymer and said gelatin or collagen; or (ii) said polymer and a first phenol-containing moiety form a first conjugate, said gelatin or collagen and a second phenol-containing moiety form a second conjugate, said polymer is selected so that said first conjugate is less cell-adhesive than said second conjugate, at least one of said first and second conjugates is crosslinked to form a matrix, and said composite comprises discrete regions that are rich in one of said first and second conjugates.
A composite core, comprising: a plurality of tubes, each of the plurality of tubes comprising a plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2401; 243) disposed in a polymeric matrix, the plurality of fibers of each tube being wound about the tube; a first end portion of each tube being configured to support a first skin and a second end portion of each tube being configured to support a second skin; wherein the plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2401) of each tube are in contact with the plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2403) of adjacent tubes, and the plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2401; 2403) of each tube are crosslinked with the plurality of fibers of adjacent tubes. a plurality of tubes, each of the plurality of tubes comprising a plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2401; 243) disposed in a polymeric matrix, the plurality of fibers of each tube being wound about the tube; a first end portion of each tube being configured to support a first skin and a second end portion of each tube being configured to support a second skin; wherein the plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2401) of each tube are in contact with the plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2403) of adjacent tubes, and the plurality of fibers (301; 303; 401; 403; 501; 503; 601; 603; 701; 703; 705; 801; 803; 2401; 2403) of each tube are crosslinked with the plurality of fibers of adjacent tubes.
A two part curable composition comprising: (a) a first part comprising a cyanoacrylate component and a peroxide catalyst, wherein the peroxide catalyst is t-butyl perbenzoate and wherein the cyanoacrylate component comprises H 2 C=C -COOR, in which formula R is selected from alkyl, alkoxyalkyl, cycloalkyl, alkenyl, aralkyl, aryl, allyl and haloalkyl groups, wherein the peroxide catalyst is present in an amount from 0.01% to 10%, by weight of the cyanoacrylate component; and (b) a second part comprising a free radical curable component and a transition metal, wherein when mixed together the peroxide catalyst initiates cure of the free radical curable component and the transition metal initiates cure of the cyanoacrylate component. (a) a first part comprising a cyanoacrylate component and a peroxide catalyst, wherein the peroxide catalyst is t-butyl perbenzoate and wherein the cyanoacrylate component comprises H 2 C=C -COOR, in which formula R is selected from alkyl, alkoxyalkyl, cycloalkyl, alkenyl, aralkyl, aryl, allyl and haloalkyl groups, wherein the peroxide catalyst is present in an amount from 0.01% to 10%, by weight of the cyanoacrylate component; and (b) a second part comprising a free radical curable component and a transition metal, wherein when mixed together the peroxide catalyst initiates cure of the free radical curable component and the transition metal initiates cure of the cyanoacrylate component.
Rechargeable battery arrangement having a large number of individual cells which are each in the form of electrochemical rechargeable battery cells and each have prismatically shaped housings, wherein the individual cells are arranged in at least one row one behind the other and are arranged in a housing or a frame, so that they are held together to form a rechargeable battery block, wherein: a) one, several or all of the individual cells are in the form of a rechargeable battery cell which changes its thickness depending on the respective state of charge, and b) at least one elastically deformable compensation component is arranged between the last individual cell and the housing or the frame at least at one end of the series arrangement of the individual cells, the said elastically deformable compensation component being designed to absorb and to compensate for changes in thickness of individual cells occurring as a result of changes in the state of charge and resulting changes in length of the series arrangement, characterized in that at least one prestressing component is arranged between the last individual cell and the housing or the frame at least at one end of the series arrangement of the individual cells, the said prestressing component supporting this last individual cell in relation to the housing or the frame, wherein the series arrangement of the individual cells can be prestressed in relation to the housing or the frame by an adjustable prestressing force by means of the at least one prestressing component, and in that the at least one prestressing component has an inner cavity which can be filled with a filling material, wherein the filling material is held in the inner cavity by an outer wall of the at least one prestressing component. a) one, several or all of the individual cells are in the form of a rechargeable battery cell which changes its thickness depending on the respective state of charge, and b) at least one elastically deformable compensation component is arranged between the last individual cell and the housing or the frame at least at one end of the series arrangement of the individual cells, the said elastically deformable compensation component being designed to absorb and to compensate for changes in thickness of individual cells occurring as a result of changes in the state of charge and resulting changes in length of the series arrangement, characterized in that at least one prestressing component is arranged between the last individual cell and the housing or the frame at least at one end of the series arrangement of the individual cells, the said prestressing component supporting this last individual cell in relation to the housing or the frame, wherein the series arrangement of the individual cells can be prestressed in relation to the housing or the frame by an adjustable prestressing force by means of the at least one prestressing component, and in that the at least one prestressing component has an inner cavity which can be filled with a filling material, wherein the filling material is held in the inner cavity by an outer wall of the at least one prestressing component.
A device (100, 400) for dispensing firefighting fluid, comprising: a nozzle (106, 406) comprising a nozzle body (212, 512) and an inlet (118, 418) configured to receive a flow of fluid; a nozzle stem (108, 408) centrally disposed in the nozzle (106, 406) and fixedly engaged with the nozzle body (212, 512); a foam tube (102, 402) configured to receive and dispense at least a portion of the flow of fluid from the nozzle (106, 406); and a centrally disposed foam tube coupler (112,412) fixedly engaged with the foam tube (102, 402) and configured to operably couple with the nozzle stem (108, 408). a nozzle (106, 406) comprising a nozzle body (212, 512) and an inlet (118, 418) configured to receive a flow of fluid; a nozzle stem (108, 408) centrally disposed in the nozzle (106, 406) and fixedly engaged with the nozzle body (212, 512); a foam tube (102, 402) configured to receive and dispense at least a portion of the flow of fluid from the nozzle (106, 406); and a centrally disposed foam tube coupler (112,412) fixedly engaged with the foam tube (102, 402) and configured to operably couple with the nozzle stem (108, 408).
A method of monitoring at least first and second inertial measurement units, the first inertial measurement unit and the second inertial measurement unit being connected to the same electronic processor circuit and being arranged to determine both a specific force vector in an accelerometer measurement reference frame and also rotation data concerning turning of the accelerometer measurement reference frame relative to an inertial reference frame; the method being characterized in that the electronic processor circuit performs the steps of: · projecting the specific force vectors into an inertial reference frame by using the rotation data; · comparing the two specific force vectors as projected into said reference frame with each other in order to determine a difference between them; and · monitoring variation in this difference over time. · projecting the specific force vectors into an inertial reference frame by using the rotation data; · comparing the two specific force vectors as projected into said reference frame with each other in order to determine a difference between them; and · monitoring variation in this difference over time.
A method for controlling an external device, wherein the method comprises determining graphical user interface data, wherein the graphical user interface data determines a user interface functionality to be executed in a user interface of an external device, wherein the user interface functionality comprises presenting at least one graphical interaction element on the user interface and receiving user input as a response to the user interacting with the graphical interaction element; transmitting wirelessly the graphical user interface data to the external device to provide the user interface functionality on the user interface of the external device; receiving wirelessly input data corresponding to the user input; and controlling a computer process relating to physiological data with the input data.
A method for a network, comprising: the network configures a Downlink, in the following also referred to as DL, Bandwidth Part, in the following also referred to as BWP, and an Uplink, in the following also referred to as UL, BWP in a first serving cell to a User Equipment, in the following also referred to as UE,; the network configures a paired spectrum operation in the first serving cell to the UE; and the network transmits a first Downlink Control Information, in the following also referred to as DCI, to the UE, wherein the first DCI comprises a slot format combination indicating slot format values, which include one or more slot format values for the DL BWP and one or more slot format values for the UL BWP; characterized by further comprising: the network sets an amount of said slot format values in the slot format combination in the first DCI to be multiple of a first number and further larger than the first number, wherein the first number is N th power of 2 plus 1, that is 2 N +1, wherein N is the absolute value of the difference of a first value corresponding to the first SCS configuration and a second value corresponding to the second SCS configuration. the network configures a Downlink, in the following also referred to as DL, Bandwidth Part, in the following also referred to as BWP, and an Uplink, in the following also referred to as UL, BWP in a first serving cell to a User Equipment, in the following also referred to as UE,; the network configures a paired spectrum operation in the first serving cell to the UE; and the network transmits a first Downlink Control Information, in the following also referred to as DCI, to the UE, wherein the first DCI comprises a slot format combination indicating slot format values, which include one or more slot format values for the DL BWP and one or more slot format values for the UL BWP; characterized by further comprising: the network sets an amount of said slot format values in the slot format combination in the first DCI to be multiple of a first number and further larger than the first number, wherein the first number is N th power of 2 plus 1, that is 2 N +1, wherein N is the absolute value of the difference of a first value corresponding to the first SCS configuration and a second value corresponding to the second SCS configuration.
Bushing intended for securing a retractable headrest, comprising padding elements, to a seat backrest, the bushing having a tubular shape, the bushing comprises an end section provided with an annular rim forming an end stop, and at least one conical section (14, 15) having an increasing slope from the base of the bushing towards the end stop, said conical section (14, 15) being intended for partially engaging inside a retractable-headrest sleeve secured to a seat backrest, characterized in that the annular rim is configured for allowing the adhesion of the bushing to the padding elements of a headrest.
A method for detecting patient infection with Streptococcus agalactiae strains, characterized in, that a sample from the patient is checked for the presence of the protein containing an amino acid sequence selected among of: Seq. Id. No. 1, Seq. Id. No. 3, Seq. Id. No. 4 and the epitopes contained therein or of antibodies specific for said protein, wherein the presence of said protein or of such antibodies indicates patient infection with Streptococcus agalactiae strains.
A light-reflective anisotropic conductive adhesive that is used for anisotropic conductive connection of a light-emitting element to a wiring board, the light-reflective anisotropic conductive adhesive comprising a thermosetting resin composition, a conductive particle, a light-reflective needle-shaped insulating particle, and a light-reflective spherical insulating particle, wherein each of an amount of the light-reflective needle-shaped insulating particle and an amount of the light-reflective spherical insulating particle is 1 to 50 percent by volume based on a volume of the thermosetting resin composition, and a mixing ratio (V/V) of the light-reflective spherical insulating particle to the light-reflective needle-shaped insulating particle is 1:1 to 10.
An infrared testing device (100; 200; 300; 400; 500) comprising: a body (110; 210), a solid state infrared source (120; 220), housed with the body (110; 210); a controller (150; 250) operatively coupled to the infrared source (120; 220); and a user input (140; 240) operatively coupled to at least one of the controller (150; 250) and the infrared source (120; 220); characterised in that: the solid state infrared source (120; 220) comprises a MEMS infrared source that sweeps through a plurality of infrared wavelengths and is configured to switch on and off as necessary to achieve a flicker effect of a flame; and in that the infrared testing device (100; 200; 300; 400; 500) further comprises: a lens removably coupled to the body that is configured to protect and/or house the infrared source and is further configured to modify, filter, and/or adapt emissions from the infrared source. a body (110; 210), a solid state infrared source (120; 220), housed with the body (110; 210); a controller (150; 250) operatively coupled to the infrared source (120; 220); and a user input (140; 240) operatively coupled to at least one of the controller (150; 250) and the infrared source (120; 220); a solid state infrared source (120; 220), housed with the body (110; 210); a controller (150; 250) operatively coupled to the infrared source (120; 220); and a user input (140; 240) operatively coupled to at least one of the controller (150; 250) and the infrared source (120; 220); characterised in that: the solid state infrared source (120; 220) comprises a MEMS infrared source that sweeps through a plurality of infrared wavelengths and is configured to switch on and off as necessary to achieve a flicker effect of a flame; and in that the infrared testing device (100; 200; 300; 400; 500) further comprises: a lens removably coupled to the body that is configured to protect and/or house the infrared source and is further configured to modify, filter, and/or adapt emissions from the infrared source.
A process for the manufacture of coated particles of active ingredients, wherein the active ingredient is selected from one or more construction chemical additives for the control of inorganic binders, and wherein the coating comprises cross-linked shellac, characterized in that core particles of the active ingredient are coated in a fluidized bed reactor with an aqueous solution of shellac, and the coated particles are subsequently subjected to a treatment that effects crosslinking of the shellac coating, wherein the treatment is a thermal treatment, which is carried out at 80°C from one to seven days, at 100°C from six hours to four days or at 120°C from one hour to two days.
A package comprising: a tray having an opening and a top face extended around the opening; and a sheet sealed to the top face to hermetically close the opening, wherein: the sheet is sealed to the top face to form a seal portion that has a common portion extended along an outer shape of the tray and at least one steam passage portion externally releasing steam from inside the tray; the steam passage portion has an inner edge protruded from an inner edge of the common portion toward the opening so as to have an angled shape with a pointed tip, the inner edge of the steam passage portion having a portion configuring one side relative to the tip and a portion configuring another side relative to the tip, the both portions configuring the sides being curved and extended nearing each other toward the tip; the steam passage portion has an outer edge in a curved shape with a pointed tip, the shape being similar to that of the inner edge of the steam passage portion; and the steam passage portion includes a merging portion corresponding to a peak of the angled shape and located between the tip of the outer edge and the tip of the inner edge, and a non-merging portion located between the merging portion and the common portion, characterised in that the non-merging portion has a width narrowed from the common portion toward the merging portion, wherein the tray has a square shape and each side of the square comprises one of said steam passage portion having said pointed tip so that the force for peeling the seal portion is likely to be concentrated near the center of each side of the square tray. a tray having an opening and a top face extended around the opening; and a sheet sealed to the top face to hermetically close the opening, the sheet is sealed to the top face to form a seal portion that has a common portion extended along an outer shape of the tray and at least one steam passage portion externally releasing steam from inside the tray; the steam passage portion has an inner edge protruded from an inner edge of the common portion toward the opening so as to have an angled shape with a pointed tip, the inner edge of the steam passage portion having a portion configuring one side relative to the tip and a portion configuring another side relative to the tip, the both portions configuring the sides being curved and extended nearing each other toward the tip; the steam passage portion has an outer edge in a curved shape with a pointed tip, the shape being similar to that of the inner edge of the steam passage portion; and the steam passage portion includes a merging portion corresponding to a peak of the angled shape and located between the tip of the outer edge and the tip of the inner edge, and a non-merging portion located between the merging portion and the common portion, characterised in that the non-merging portion has a width narrowed from the common portion toward the merging portion, wherein the tray has a square shape and each side of the square comprises one of said steam passage portion having said pointed tip so that the force for peeling the seal portion is likely to be concentrated near the center of each side of the square tray.
Method for increasing the range of an electric vehicle, in particular an electric scooter, with an electric motor, at least one storage cell and a controller for the electric motor, with the following steps: a) initiating the activation of a residual capacity of the storage cell by the operator, wherein the use of the residual capacity is blocked in the normal driving mode by the controller, and b) unlocking the residual capacity, characterized in that the activation of the residual capacity in step a) is initiated by the input of an activation code by way of an extra input device, wherein the input device specifically comprises the activation of the residual capacity. a) initiating the activation of a residual capacity of the storage cell by the operator, wherein the use of the residual capacity is blocked in the normal driving mode by the controller, and b) unlocking the residual capacity,
Selective Catalytic Reagent doser adapted to be arranged on an exhaust line of an internal combustion engine as part of a SCR system, said doser having a body housing a reagent conduit extending from an inlet to a nozzle and, an injector assembly comprising an actuator and a valve member cooperating with a seat to enable or prevent spray of reagent through said nozzle and, a filter assembly having a filtering mesh for retaining particles present in the reagent, characterized in that said filter assembly being arranged in a first position wherein all the reagent is directed to flow through the mesh and, being free to move away from said first position only when under internal ice pressure, a portion of the flow being able to bypass the mesh, the filter assembly returning to the first position when the reagent has thawed.