mhurhangee/ep-ind-claims huggingface dataset:
A method of treating a skin tissue area having a skin surface, comprising the steps of: deforming the skin tissue area into a deformed shape comprising a plurality of folds in the skin tissue area; arranging radiofrequency electrodes in contact with the skin surface on opposite sides of the deformed skin tissue area; and while maintaining the skin tissue area in said deformed shape, providing a spatially continuous radiofrequency energy flow between the radiofrequency electrodes on opposite sides of the deformed skin tissue area through the deformed skin tissue area, thereby heating at least a portion of the deformed skin tissue area; and releasing the skin tissue area from said deformed shape, thereby deforming said heated portion into a wave-shaped zone of heated skin tissue having a depth relative to the skin surface that varies between a minimum and a maximum value in a direction between said opposite sides. deforming the skin tissue area into a deformed shape comprising a plurality of folds in the skin tissue area; arranging radiofrequency electrodes in contact with the skin surface on opposite sides of the deformed skin tissue area; and while maintaining the skin tissue area in said deformed shape, providing a spatially continuous radiofrequency energy flow between the radiofrequency electrodes on opposite sides of the deformed skin tissue area through the deformed skin tissue area, thereby heating at least a portion of the deformed skin tissue area; and releasing the skin tissue area from said deformed shape, thereby deforming said heated portion into a wave-shaped zone of heated skin tissue having a depth relative to the skin surface that varies between a minimum and a maximum value in a direction between said opposite sides.
A device for treating substrates, comprising two processing cylinders (96, 97), between which the substrate can be inserted, wherein the substrate undergoes processing as it passes through the cylinder nip by means of tool parts acting therein and chosen from the group composed of cutting tools, punching tools, creasing tools, perforating tools and grooving tools, and comprising a separation system, located downstream of the processing cylinders (96, 97), with which processed substrate can be separated into at least one waste part and at least one blank, wherein the separation system comprises a transport cylinder and a stripping cylinder associated therewith, and the transport cylinder has first openings and a detachably secured packing that includes depressions in which perforations are formed, and at least one perforation covers at least one first opening, and the stripping cylinder has a detachably secured packing that includes raised regions that correspond to the depressions.
An antibody-drug conjugate comprising: an antibody that binds to an alphaV subunit of a heterodimeric human integrin receptor conjugated to a cytotoxic agent with an IC50 of 10 -9 M or less, wherein the antibody-drug conjugate exerts a cytotoxic or cytostatic effect on an alphaV integrin expressing cancer cell line, of the formula: wherein the antibody is a human alphaV integrin subunit specific antibody, wherein said antibody is capable of being internalized by the cell expressing said alphaV subunit; wherein the maytansinol is esterified at C-3; R 1, R 2, X 1 and X 2 are independently H, Me, C 2 H 5, linear alkyl or alkenyl having from 1 to 10 carbon atoms, branched or cyclic alkyl or alkenyl having from 3 to 10 carbon atoms, phenyl, substituted phenyl, or a heterocyclic aryl moiety, or a heterocycloalkyl moiety; n is 1 - 5; p is 1 - 5; and m is 1 to 10, and the pharmaceutically acceptable salts and esters thereof.
A vibration damping mechanism of a rotation shaft, comprising: a rotation shaft (11, 70) for outputting torque inputted from an input side end portion (11a, 71a) thereof to an output side end portion thereof (11b, 71b), and a damping member (20, 40, 60, 80) having a fixed portion (21, 41, 61, 81) fixed to the rotation shaft, and a frictional contact portion (22, 42, 62, 82) held in frictional contact with the rotation shaft, characterized by the frictional contact portion (22, 42, 62, 82) is provided with an urging means for urging the frictional contact portion toward the rotation shaft (11, 70) to be held in frictional contact with the rotation shaft at a predetermined contact pressure the urging means is spaced apart from and does not have direct contact with the rotation shaft (11, 70), and the frictional contact portion (22, 42, 62, 82) of the damping member is arranged in spaced relationship with the fixed portion (21, 41, 61, 81) in an axial direction of the rotation shaft (11, 70). a rotation shaft (11, 70) for outputting torque inputted from an input side end portion (11a, 71a) thereof to an output side end portion thereof (11b, 71b), and a damping member (20, 40, 60, 80) having a fixed portion (21, 41, 61, 81) fixed to the rotation shaft, and a frictional contact portion (22, 42, 62, 82) held in frictional contact with the rotation shaft, characterized by the frictional contact portion (22, 42, 62, 82) is provided with an urging means for urging the frictional contact portion toward the rotation shaft (11, 70) to be held in frictional contact with the rotation shaft at a predetermined contact pressure the urging means is spaced apart from and does not have direct contact with the rotation shaft (11, 70), and the frictional contact portion (22, 42, 62, 82) of the damping member is arranged in spaced relationship with the fixed portion (21, 41, 61, 81) in an axial direction of the rotation shaft (11, 70).
An adjustable anchoring group for the wall assembly of wall-cupboards comprising a hanging-bracket device, provided with an anchoring base to a wall-cupboard and a hooking element, and an anchoring support to a wall, regulation means and actuation means of the reciprocal position between said hanging bracket device, said hooking element and said anchoring support, being provided, for effecting a regulation in the position of the wall-cupboard with respect to the wall, according to two directions (F, F1) perpendicular to each other, vertically in height and horizontally in depth respectively both said regulation means and said actuation means are accessible from both below and above for controlling both said regulation means and also said actuation means from both sides, characterized in that said hanging bracket comprises a slide that slides linearly with respect to said anchoring base in a first direction, said hooking element being at least partially associated with said slide and movable with respect to the latter in at least a second direction substantially perpendicular with respect to said first direction, wherein regulation means and actuation means are respectively associated with said slide and said hooking element, said regulation means comprise: a threaded seat formed in said slide, a first abutment flap integral with said base which extends perpendicularly to the movement direction of said slide and a regulation screw accessible from below or above cooperating with said first abutment flap and with said threaded seat for effecting the sliding of said slide in said first direction, a manoeuvring pivot of the regulation screw, controllable in an opposite manner from above or below, being provided, which in turn cooperates with a second abutment flap also identically integral with said base, and is inserted and firmly coupled with the rotation of said regulation screw, both said regulation screw and said manoeuvring pivot being kept firmly in position with respect to the abutment flaps (29, 29'), but free to rotate.
A fire-fighting apparatus configured for a battery, comprising: a pipe, having an air inlet end and an air outlet end, the air inlet end being configured to be connected to a box of the battery, so that a combustible gas generated when thermal runaway occurs in the battery is capable of entering the pipe from the box via the air inlet end and is discharged from the pipe via the air outlet end; and a gas release mechanism, configured to be connected to the pipe, the gas release mechanism being configured to release a fire-fighting gas into the pipe when thermal runaway occurs in the battery; wherein a blocking structure is provided in the pipe, and the blocking structure is configured to block the combustible gas and the fire-fighting gas and change a flow direction, so that the combustible gas and the fire-fighting gas are capable of being mixed before being discharged from the pipe; the blocking structure comprises a plurality of baffle plates, the plurality of baffle plates are arranged at intervals in an extension direction of the pipe, and the baffle plate is provided with an opening for a gas to pass through, or the baffle plate and an inner wall of the pipe are enclosed to form an opening for a gas to pass through, wherein projections of two adjacent openings in the extension direction of the pipe are disposed to be misaligned. a pipe, having an air inlet end and an air outlet end, the air inlet end being configured to be connected to a box of the battery, so that a combustible gas generated when thermal runaway occurs in the battery is capable of entering the pipe from the box via the air inlet end and is discharged from the pipe via the air outlet end; and a gas release mechanism, configured to be connected to the pipe, the gas release mechanism being configured to release a fire-fighting gas into the pipe when thermal runaway occurs in the battery; wherein a blocking structure is provided in the pipe, and the blocking structure is configured to block the combustible gas and the fire-fighting gas and change a flow direction, so that the combustible gas and the fire-fighting gas are capable of being mixed before being discharged from the pipe; the blocking structure comprises a plurality of baffle plates, the plurality of baffle plates are arranged at intervals in an extension direction of the pipe, and the baffle plate is provided with an opening for a gas to pass through, or the baffle plate and an inner wall of the pipe are enclosed to form an opening for a gas to pass through, wherein projections of two adjacent openings in the extension direction of the pipe are disposed to be misaligned.
Microcavity structure (100, 200, 300) comprising at least: - a substrate, - a cover (106, 202, 302) attached to the substrate such that a space formed between the cover (106, 202, 302) and the substrate forms the microcavity, - at least one hole passing through the cover (106, 202, 302), and - at least one closing flap of the hole placed inside the microcavity and comprising at least two portions (123a, 123b, 123c) of materials with different thermal expansion coefficients placed one against the other, at least one first end (124, 125) of said two portions (123a, 123b, 123c) being mechanically linked to the cover (106, 202, 302), at least a second end of said two portions being free, and at least a part of the closing flap being placed opposite the hole, said two portions (123a, 123b, 123c) being capable of closing or not the hole under the effect of a temperature variation. - a substrate, - a cover (106, 202, 302) attached to the substrate such that a space formed between the cover (106, 202, 302) and the substrate forms the microcavity, - at least one hole passing through the cover (106, 202, 302), and - at least one closing flap of the hole placed inside the microcavity and comprising at least two portions (123a, 123b, 123c) of materials with different thermal expansion coefficients placed one against the other, at least one first end (124, 125) of said two portions (123a, 123b, 123c) being mechanically linked to the cover (106, 202, 302), at least a second end of said two portions being free, and at least a part of the closing flap being placed opposite the hole, said two portions (123a, 123b, 123c) being capable of closing or not the hole under the effect of a temperature variation.
Method of detecting movements of a sample with respect to an objective, - wherein light from at least one reference object connected to the sample is imaged at consecutive points in time by means of the objective into reference object images in an image plane, - wherein the reference object images in the image plane are recorded by a camera, and - wherein the recorded reference object images are compared to one another, characterized in - that illumination light is coupled into a waveguide which is oriented transversely to the optical axis of the objective, and that the at least one reference object is illuminated with the coupled-in illumination light that induces the irradiation of the light from the at least one reference object, - wherein a glass plate or another plate of made of an optically transparent material of the sample is used as the waveguide, wherein the at least one reference object is in the plate. - wherein light from at least one reference object connected to the sample is imaged at consecutive points in time by means of the objective into reference object images in an image plane, - wherein the reference object images in the image plane are recorded by a camera, and - wherein the recorded reference object images are compared to one another, characterized in - that illumination light is coupled into a waveguide which is oriented transversely to the optical axis of the objective, and that the at least one reference object is illuminated with the coupled-in illumination light that induces the irradiation of the light from the at least one reference object, - wherein a glass plate or another plate of made of an optically transparent material of the sample is used as the waveguide, wherein the at least one reference object is in the plate.
An active foodware system (2520, 2607, 2800) comprising: a mechanical structure (2518, 2600, 2801, 2907, 2918, 2921, 2934, 2903, 2920, 2932, 2947, 3800, 4200); a plurality of dining plates (2500, 2501, 2502, 2606, 2803, 2945, 3804, 4201), each dining plate having a dining surface, each dining surface being recessed in relation to a region surrounding said dining surface, said dining surfaces recessed for receiving solid food and preventing spillage from said dining surfaces, wherein said mechanical structure (2518, 2600, 2801, 2907, 2918, 2921, 2934, 2903, 2920, 2932, 2947, 3800, 4200) is for supporting and positioning said dining plates for dining; a plurality of sensing components (2900, 2915, 2946, 2948, 2949) configured to function while a diner uses said system, wherein each sensing component is for sensing a characteristic of said food on a respective dining surface, wherein said sensed characteristic of said food comprises a weight of said food on said respective dining surface; and a stimulating component (2503, 2602, 3810, 4204, 4206, 4209) comprising a display and configured to, when said sensing components sense said weight of said food on said dining surfaces, cause a corresponding visual stimulation to be presented to said diner which provides information other than information provided by a scale. a mechanical structure (2518, 2600, 2801, 2907, 2918, 2921, 2934, 2903, 2920, 2932, 2947, 3800, 4200); a plurality of dining plates (2500, 2501, 2502, 2606, 2803, 2945, 3804, 4201), each dining plate having a dining surface, each dining surface being recessed in relation to a region surrounding said dining surface, said dining surfaces recessed for receiving solid food and preventing spillage from said dining surfaces, wherein said mechanical structure (2518, 2600, 2801, 2907, 2918, 2921, 2934, 2903, 2920, 2932, 2947, 3800, 4200) is for supporting and positioning said dining plates for dining; a plurality of sensing components (2900, 2915, 2946, 2948, 2949) configured to function while a diner uses said system, wherein each sensing component is for sensing a characteristic of said food on a respective dining surface, wherein said sensed characteristic of said food comprises a weight of said food on said respective dining surface; and a stimulating component (2503, 2602, 3810, 4204, 4206, 4209) comprising a display and configured to, when said sensing components sense said weight of said food on said dining surfaces, cause a corresponding visual stimulation to be presented to said diner which provides information other than information provided by a scale.
Carrying strap comprising a strap and at least one fastening device, which is arranged at at least one end of the strap and is intended for fastening a portable object, e.g. a camera, wherein the strap has fastened on it at least one first quick-locking element, which is a constituent part of a quick-locking mechanism comprising the first quick-locking element and a corresponding second quick-locking element, wherein the first quick-locking element can be released from the corresponding second quick-locking element along a first direction from a locking position, in which the second quick-locking element is locked to the first quick-locking element, and can be moved into the locking position along a second direction, and wherein the first quick-locking element can be fixed on the strap such that it can be displaced along the strap, characterized in that the first and second directions (X, Y) run orthogonally in relation to one another.
A floor slab bridge structure wherein slab concrete is filled in the spaces between sides of respective bridge girders, which bridge girders are aligned in a bridge width direction and are configured to span between two or more concrete bridge piers, and said slab concrete is configured to extend in a length direction of the bridge girders and connection concrete, in which bridge girder portions supported on bridge bottom surfaces of concrete bridge piers supporting the bridge girders are embedded, is additionally deposited on the bridge bottom surfaces to form a rigid joining structure, in which the slab concrete and the concrete bridge piers are concrete-joined together through the connection concrete characterised by connecting bars which are embedded in the concrete bridge piers and project upward from the bridge bottom surfaces of the bridge piers; projecting portions of the connecting bars are inserted through the bridge girder portions; stoppers are provided at upper end projecting portions of the connecting bars which are inserted through bridge girder portions; the stoppers are seated on the upper surfaces of the bridge girder portions to connect bridge girders to concrete bridge piers. which bridge girders are aligned in a bridge width direction and are configured to span between two or more concrete bridge piers, and said slab concrete is configured to extend in a length direction of the bridge girders and supported on bridge bottom surfaces of concrete bridge piers supporting the bridge girders are embedded, is additionally deposited on the bridge bottom surfaces to form in which the slab concrete and the concrete bridge piers are concrete-joined together through the connection concrete connecting bars which are embedded in the concrete bridge piers and project upward from the bridge bottom surfaces of the bridge piers; projecting portions of the connecting bars are inserted through the bridge girder portions; stoppers are provided at upper end projecting portions of the connecting bars which are inserted through bridge girder portions; the stoppers are seated on the upper surfaces of the bridge girder portions to connect bridge girders to concrete bridge piers.
A method of link adaptation in a wireless communication network comprising: signaling future transmit resource allocations for a future transmit interval from one or more data sending units by transmitting channelization resource allocation information corresponding to channelization resource allocations to be used by one or more data sending units in the future transmit interval, so that nearby data receiving units consider the future transmit resource allocations in their interference-based determinations of link adaptation feedback for the future transmit intervals; at a given data sending unit, receiving link adaptation feedback for the future transmit interval from an associated one of the data receiving units; and in the future transmit interval, adapting a transmission link at the given data sending unit for the associated data receiving unit according to the link adaptation feedback. signaling future transmit resource allocations for a future transmit interval from one or more data sending units by transmitting channelization resource allocation information corresponding to channelization resource allocations to be used by one or more data sending units in the future transmit interval, so that nearby data receiving units consider the future transmit resource allocations in their interference-based determinations of link adaptation feedback for the future transmit intervals; at a given data sending unit, receiving link adaptation feedback for the future transmit interval from an associated one of the data receiving units; and in the future transmit interval, adapting a transmission link at the given data sending unit for the associated data receiving unit according to the link adaptation feedback.
A method for predictively estimating the transmission conditions for a communication between two communication partners (B, A), which move along a roadway, wherein the communication partners (B, A) in each case estimate the current transmission conditions on their part, characterized in that the communication partners (B, A) receive and use estimated transmission conditions from a number of preceding communication partners (C, D) in order to estimate the transmission conditions for a future point in time.
A computer-implemented method for initiating a session allowing multiple connections in a file system and receiving transport information, the method comprising: receiving from an application a request to initiate a Server Message Block, SMB, session between a client and a server; selecting a first transport for sending commands between the client and server; establishing a first connection via the selected first transport; binding the established first connection to the initiated session; determining one or more available transports available for establishing a second connection between the client and the server; selecting a second transport for sending commands between the client and server; establishing a second connection between the client and the server, wherein that establishing comprises sending a request from the client to the server, and that request including a binding flag that indicates to attach the second connection to the SMB session, binding the established second connection to the initiated SMB session; and sending a command received from the application through the established connections bound to the SMB session, wherein the preceding steps are performed by at least one processor. receiving from an application a request to initiate a Server Message Block, SMB, session between a client and a server; selecting a first transport for sending commands between the client and server; establishing a first connection via the selected first transport; binding the established first connection to the initiated session; determining one or more available transports available for establishing a second connection between the client and the server; selecting a second transport for sending commands between the client and server; establishing a second connection between the client and the server, wherein that establishing comprises sending a request from the client to the server, and that request including a binding flag that indicates to attach the second connection to the SMB session, binding the established second connection to the initiated SMB session; and sending a command received from the application through the established connections bound to the SMB session, wherein the preceding steps are performed by at least one processor.