mhurhangee/ep-ind-claims huggingface dataset:
A structural part for a motor vehicle, of the type comprising: - first and second mats, each mat comprising fibers and a resin binding the fibers, and - a separator inserted between the first and second mats, the first and second mats being fixed on opposite faces of the separator, wherein at least one of the first and second mats includes at least one continuous web of fibers, characterized in that said web has a grammage less than or equal to 150 g/m 2, said web comprising a plurality of parallel fibers bonded together by a thermosetting resin, at least part of the fibers of each web having a length greater than 20 cm, in particular greater than 50 cm. - first and second mats, each mat comprising fibers and a resin binding the fibers, and - a separator inserted between the first and second mats, the first and second mats being fixed on opposite faces of the separator, wherein at least one of the first and second mats includes at least one continuous web of fibers, characterized in that said web has a grammage less than or equal to 150 g/m 2, said web comprising a plurality of parallel fibers bonded together by a thermosetting resin, at least part of the fibers of each web having a length greater than 20 cm, in particular greater than 50 cm.
Anhydrous composition in oil form comprising: 1) at least particles comprising a core containing at least one beneficial agent and a shell surrounding the core; the said shell comprising at least one hydrophobic-modified polysaccharide chosen from starch C 5 -C 20 -alkenyl succinates and at least one water-soluble carbohydrate chosen from maltodextrins having a Dextrose Equivalent ranging from 4 to 20; the said particles simultaneously exhibiting a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0; the said particles being spherical and having a number-average diameter ranging from 1 to 30 microns and a volume-average diameter ranging from 5 to 150 microns; and 2) an oily phase. 1) at least particles comprising a core containing at least one beneficial agent and a shell surrounding the core; the said shell comprising at least one hydrophobic-modified polysaccharide chosen from starch C 5 -C 20 -alkenyl succinates and at least one water-soluble carbohydrate chosen from maltodextrins having a Dextrose Equivalent ranging from 4 to 20; the said particles simultaneously exhibiting a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0; the said particles being spherical and having a number-average diameter ranging from 1 to 30 microns and a volume-average diameter ranging from 5 to 150 microns; and 2) an oily phase.
A layer of a preform comprising: a first angle of orientation of a plurality of fiber tow lengths measured at an inner diameter of an annular disc shaped layer of the preform, wherein the first angle of orientation of the plurality of fiber tow lengths is repeated in a circular progression around an inner circumference of the annular disc shaped layer of the preform; and a second angle of orientation of the plurality of fiber tow lengths measured at an outer diameter of the annular disc shaped layer of the preform, wherein the second angle of orientation of the plurality of fiber tow lengths is repeated in a circular progression around an exterior circumference of the annular disc shaped layer of the preform, wherein adjacent fiber tows of the plurality of fiber tow lengths are each spaced apart at a substantially uniform distance; characterised in that the first angle of orientation of the plurality of fiber tow lengths is more radial as compared with the second angle of orientation of the plurality of fiber tow lengths, and in that the fiber tow angle varies from more radial to more tangential between the inner diameter and the outer diameter of the layer of the preform, wherein the annular disc shaped layer comprises substantially uniform thickness, and the annular disc shaped layer comprises substantially uniform areal weight. a first angle of orientation of a plurality of fiber tow lengths measured at an inner diameter of an annular disc shaped layer of the preform, wherein the first angle of orientation of the plurality of fiber tow lengths is repeated in a circular progression around an inner circumference of the annular disc shaped layer of the preform; and a second angle of orientation of the plurality of fiber tow lengths measured at an outer diameter of the annular disc shaped layer of the preform, wherein the second angle of orientation of the plurality of fiber tow lengths is repeated in a circular progression around an exterior circumference of the annular disc shaped layer of the preform, wherein adjacent fiber tows of the plurality of fiber tow lengths are each spaced apart at a substantially uniform distance; characterised in that the first angle of orientation of the plurality of fiber tow lengths is more radial as compared with the second angle of orientation of the plurality of fiber tow lengths, and in that the fiber tow angle varies from more radial to more tangential between the inner diameter and the outer diameter of the layer of the preform, wherein the annular disc shaped layer comprises substantially uniform thickness, and the annular disc shaped layer comprises substantially uniform areal weight.
An apparatus for the treatment of lateral epicondylitis by stretching one or more muscles on a user's affected arm, the apparatus comprising: a distal stabilizing strap, a proximal stabilizing strap, and a third strap, the third strap having a first end section, a middle section, and a second end section; means for holding interphalangeal joints on the affected arm in flexed positions, functionally connected to the first end section of the third strap; the distal stabilizing strap for securing the apparatus to a wrist portion of the affected arm releasably attachable to the middle section of the third strap; the proximal stabilizing strap for securing the apparatus to an upper arm portion of the affected arm releasably attachable to the second end section of the third strap; and a rigid member separating the distal stabilizing strap from the proximal stabilizing strap for placing the affected arm's elbow into extension releasably attachable to the middle section of the third strap; wherein the third strap is configured to wrap around the means for holding the interphalangeal joints, and to place the wrist, interphalangeal joints, and metacarpal joints into flexion and to place the affected arm's forearm into pronation and the affected arm's elbow into extension. a distal stabilizing strap, a proximal stabilizing strap, and a third strap, the third strap having a first end section, a middle section, and a second end section; means for holding interphalangeal joints on the affected arm in flexed positions, functionally connected to the first end section of the third strap; the distal stabilizing strap for securing the apparatus to a wrist portion of the affected arm releasably attachable to the middle section of the third strap; the proximal stabilizing strap for securing the apparatus to an upper arm portion of the affected arm releasably attachable to the second end section of the third strap; and a rigid member separating the distal stabilizing strap from the proximal stabilizing strap for placing the affected arm's elbow into extension releasably attachable to the middle section of the third strap; wherein the third strap is configured to wrap around the means for holding the interphalangeal joints, and to place the wrist, interphalangeal joints, and metacarpal joints into flexion and to place the affected arm's forearm into pronation and the affected arm's elbow into extension.
Method comprising the following steps for use in a system comprising a device with a control unit and contactless communication interface, an external unit, a network, an application server, and a testing instance: - Receiving data in the communication interface; - Transparently sending of the received data to the external unit by the communication interface; wherein the device provides a signature for at least a portion of the data; - Creating the signature for the data in the communication interface to recognize copies of applications, wherein the data is signed by means of a secret key SK of the communication interface by the communication interface and the signature is verified by means of a public key PK of the communication interface by the testing instance, wherein the secret key SK forms with the public key PK a key pair of an asymmetric cryptographic algorithm; and - the created signature and the data are sent separate from each other from the communication interface to the external unit, where the created signature is encrypted after signing and the sent data is encrypted before signing with a key of the testing instance, which verifies the origin of the data by means of the signature. - Receiving data in the communication interface; - Transparently sending of the received data to the external unit by the communication interface; wherein the device provides a signature for at least a portion of the data; - Creating the signature for the data in the communication interface to recognize copies of applications, wherein the data is signed by means of a secret key SK of the communication interface by the communication interface and the signature is verified by means of a public key PK of the communication interface by the testing instance, wherein the secret key SK forms with the public key PK a key pair of an asymmetric cryptographic algorithm; and wherein the data is signed by means of a secret key SK of the communication interface by the communication interface and the signature is verified by means of a public key PK of the communication interface by the testing instance, wherein the secret key SK forms with the public key PK a key pair of an asymmetric cryptographic algorithm; and - the created signature and the data are sent separate from each other from the communication interface to the external unit, where the created signature is encrypted after signing and the sent data is encrypted before signing with a key of the testing instance, which verifies the origin of the data by means of the signature.
Carrier for mounting a vehicle device for a motor vehicle, with a basic structure, the basic structure being formed from plastic, and with at least one attachment point (8, 9) for arranging the vehicle device on the carrier (1, 100), the attachment point (8, 9) being assigned a holding element (13, 14) which is configured from metal, the holding element (13, 14) being configured for absorbing forces in a crash scenario, characterized in that the holding element (13, 14) has a predefined crash expansion region, the crash expansion region having at least one protuberance or a plurality of protuberances for providing a material reservoir, and the at least one protuberance or the plurality of protuberances being configured for expanding the holding element (13, 14) in the crash scenario.
Protective device for a vehicle, said vehicle comprising a structure delimiting a rear space and a front space comprising at least one seat, said device comprising a main protective grille intended to be secured to said structure transversely behind said seat, at an interface between said rear and front spaces, said main protective grille being intended to be installed in a position inclined towards the rear of said vehicle with respect to a vertical direction of said vehicle by having a lower part closer to said seat than an upper part in order to reduce the energy to be absorbed in the event of a collision between an object housed in said rear space and said main protective grid, characterized in that the device comprises at least one reinforcing tab comprising a front end intended to be secured to an upper part of said structure and a rear end fixedly secured to an upper end of said main protective grid, and capable of absorbing by deformation a part of the energy of said collision
A dielectric resonator antenna comprising: a substrate with at least a first planar surface; a feedline formed on the first planar surface of the substrate; a polymer-based resonator body patterned via X-ray lithography, UV lithography, photolithography or 3D printing, the resonator body comprising at least a first body portion disposed on the first planar surface of the substrate and at least partly upon the feedline, wherein the first body portion at least partly defines a first aperture therethrough in a plane substantially perpendicular to the first planar surface, and wherein the first body portion defines at least a second aperture between a wall of the first aperture and an outer wall of the first body portion, extending in a plane substantially perpendicular to the first planar surface, wherein at least a second body portion is disposed within the first aperture; and a conductive feed structure filled within the second aperture by an amount between 10-100% of the height of the resonator body, the feed structure electrically coupled to the first feedline portion and extending away from the feedline through the second aperture. a substrate with at least a first planar surface; a feedline formed on the first planar surface of the substrate; a polymer-based resonator body patterned via X-ray lithography, UV lithography, photolithography or 3D printing, the resonator body comprising at least a first body portion disposed on the first planar surface of the substrate and at least partly upon the feedline, wherein the first body portion at least partly defines a first aperture therethrough in a plane substantially perpendicular to the first planar surface, and wherein the first body portion defines at least a second aperture between a wall of the first aperture and an outer wall of the first body portion, extending in a plane substantially perpendicular to the first planar surface, wherein at least a second body portion is disposed within the first aperture; and a conductive feed structure filled within the second aperture by an amount between 10-100% of the height of the resonator body, the feed structure electrically coupled to the first feedline portion and extending away from the feedline through the second aperture.
Burner for a furnace for vitrifiable materials, the furnace comprising a tank having one or more walls defining a melting chamber, wherein said burner comprises: - a plurality of injectors arranged to form a straight line or arranged offset from a straight line, wherein each injector is configured to generate, in use, a flame within said melting chamber, - at least one base, wherein said plurality of injectors is stably associated with the base to form an injection assembly, - a cover assembly, comprising a shell body and a cooling circuit, configured to allow the circulation of a cooling fluid within said shell body; and wherein said shell body removably surrounds at least part of each injector and is removably associated with the injection assembly and is apt to be associated with a wall of the furnace to allow a connection of each injector with said wall of the tank; and wherein each injector has a combustion chamber configured to be in fluid communication with: said melting chamber through a communication mouth, an oxidant feeding circuit through an oxidant inlet, and a combustible feeding circuit through a combustible inlet. - a plurality of injectors arranged to form a straight line or arranged offset from a straight line, wherein each injector is configured to generate, in use, a flame within said melting chamber, - at least one base, wherein said plurality of injectors is stably associated with the base to form an injection assembly, - a cover assembly, comprising a shell body and a cooling circuit, configured to allow the circulation of a cooling fluid within said shell body; and wherein said shell body removably surrounds at least part of each injector and is removably associated with the injection assembly and is apt to be associated with a wall of the furnace to allow a connection of each injector with said wall of the tank; and wherein each injector has a combustion chamber configured to be in fluid communication with: said melting chamber through a communication mouth, an oxidant feeding circuit through an oxidant inlet, and a combustible feeding circuit through a combustible inlet.
A medical image processing system comprising: a medical image acquisition unit that acquires a medical image (46, 47, 48, 54) obtained by imaging of an observation target; a medical image analysis processing unit (12, 36) configured to perform analysis processing using the medical image (46, 47, 48, 54), the medical image analysis processing unit (12, 36) including: a region-of-interest detection unit that performs region-of-interest detection processing for detecting a region of interest from the medical image (46, 47, 48, 54); the system being characterised by further comprising: a display control unit that keeps displaying a detection result of the region of interest for a certain period of time on a display unit, in a case where a position of the region of interest is changed in accordance with a movement of the region of interest, at a detection position of the region of interest detected by the region-of-interest detection unit before the position of the region of interest is changed, to simultaneously display the most recent detection result of the region of interest and the previous detection result of the region of interest on the display unit. a medical image acquisition unit that acquires a medical image (46, 47, 48, 54) obtained by imaging of an observation target; a medical image analysis processing unit (12, 36) configured to perform analysis processing using the medical image (46, 47, 48, 54), the medical image analysis processing unit (12, 36) including: a region-of-interest detection unit that performs region-of-interest detection processing for detecting a region of interest from the medical image (46, 47, 48, 54);
A probe for an ultrasonic imaging apparatus comprising: a piezoelectric unit including a piezoelectric substance and an electrode (130a, 130b); a printed circuit board, PCB, unit having a printed circuit board, PCB, and a support unit supporting the PCB; a matching layer formed at front surfaces of the piezoelectric unit and the PCB unit; and a backing layer formed at a back surface of the piezoelectric unit and the PCB unit, wherein the PCB unit is formed at both lateral surfaces of the piezoelectric unit on the basis of the piezoelectric unit inserted into the PCB unit, wherein the PCB includes a flexible printed circuit board, FPCB, the probe being characterized in that the PCB unit is configured to be formed to have the same height as an axial-directional height of the piezoelectric unit at the lateral surfaces of the piezoelectric unit, the height of the PCB unit being determined based on a thickness of the support unit; the support unit is a rigid support unit; and the PCB unit has a rigid flexible printed circuit board, R-FPCB, shape, comprising the rigid support unit bonded to the FPCB. a piezoelectric unit including a piezoelectric substance and an electrode (130a, 130b); a printed circuit board, PCB, unit having a printed circuit board, PCB, and a support unit supporting the PCB; a matching layer formed at front surfaces of the piezoelectric unit and the PCB unit; and a backing layer formed at a back surface of the piezoelectric unit and the PCB unit, wherein the PCB unit is formed at both lateral surfaces of the piezoelectric unit on the basis of the piezoelectric unit inserted into the PCB unit, wherein the PCB includes a flexible printed circuit board, FPCB, the probe being characterized in that the PCB unit is configured to be formed to have the same height as an axial-directional height of the piezoelectric unit at the lateral surfaces of the piezoelectric unit, the height of the PCB unit being determined based on a thickness of the support unit; the support unit is a rigid support unit; and the PCB unit has a rigid flexible printed circuit board, R-FPCB, shape, comprising the rigid support unit bonded to the FPCB.
A method for producing an integrated circuit, comprising the steps: - providing a semiconductor wafer having a first and a second surface (12, 14), - producing a wafer cavity (16; 44') below at least one defined wafer section in the region of the first surface, by firstly providing a substrate wafer which is converted, in the region of the defined wafer section, into porous silicon (42, 44) having a plurality of pores by means of an anodic etching process, and by subsequently subjecting the porous silicon (42, 44) to a thermal treatment, in the course of which the pores at least substantially close again at the first surface, wherein the material required for this originates from a more deeply situated layer of the porous silicon - producing a circuit structure in the defined wafer section and - releasing the defined wafer section from the semiconductor wafer, wherein the wafer section is freed in a first process sequence in such a way that it is held only via web-like connections on the remaining semiconductor wafer, and wherein the web-like connections are severed in a second process sequence, characterized in that the substrate wafer is composed of p-doped silicon in the region of the first surface, and in that a plurality of local n-doped regions (38, 40) are produced in the p-doped silicon of the substrate wafer before the p-doped silicon is converted into porous silicon (42, 44) by means of the anodic etching process, wherein a first group of punctiform n-doped regions are produced, wherein at least one punctiform n-doped region is arranged in the region of the defined wafer section, and wherein a ring-shaped n-doped region is produced, which is arranged concentrically at the periphery of the substrate wafer, wherein the punctiform n-doped regions are distributed substantially uniformly within the ring-shaped n-doped region. - providing a semiconductor wafer having a first and a second surface (12, 14), - producing a wafer cavity (16; 44') below at least one defined wafer section in the region of the first surface, by firstly providing a substrate wafer which is converted, in the region of the defined wafer section, into porous silicon (42, 44) having a plurality of pores by means of an anodic etching process, and by subsequently subjecting the porous silicon (42, 44) to a thermal treatment, in the course of which the pores at least substantially close again at the first surface, wherein the material required for this originates from a more deeply situated layer of the porous silicon - producing a circuit structure in the defined wafer section and - releasing the defined wafer section from the semiconductor wafer, wherein the wafer section is freed in a first process sequence in such a way that it is held only via web-like connections on the remaining semiconductor wafer, and wherein the web-like connections are severed in a second process sequence,