mhurhangee/ep-ind-claims huggingface dataset:
An adhesion promotion device (100, 100A) comprising: a main body portion configured to be disposed between biological organs, wherein the main body portion has a first region and a second region formed along an outer edge of the first region, the second region includes an adhesion promotion portion that promotes adhesion of a biological tissue, and the first region includes a holding portion (30, 30A) having a holding force with respect to the biological organs which is stronger than that of the adhesion promotion portion, characterized in that said main body portion is configured to be disposed between biological organs which are anastomosed, said holding portion is integrally formed at a portion of an outer surface of the main body portion, said adhesion promotion portion has a plurality of through-holes; and a ratio value of hole diameter D of the through-hole 25 with respect to a pitch P of the through-holes 25 is 0.25 or greater and smaller than 40. a main body portion configured to be disposed between biological organs, wherein the main body portion has a first region and a second region formed along an outer edge of the first region, the second region includes an adhesion promotion portion that promotes adhesion of a biological tissue, and the first region includes a holding portion (30, 30A) having a holding force with respect to the biological organs which is stronger than that of the adhesion promotion portion, characterized in that said main body portion is configured to be disposed between biological organs which are anastomosed, said holding portion is integrally formed at a portion of an outer surface of the main body portion, said adhesion promotion portion has a plurality of through-holes; and a ratio value of hole diameter D of the through-hole 25 with respect to a pitch P of the through-holes 25 is 0.25 or greater and smaller than 40.
A switch unit comprising: a flat front plate, comprising an actuation area; a structure located behind the front plate adjacent to the actuation area; at least two pressure sensitive piezoelectric transducers adapted to convert pressure exerted by the front plate to the transducers into electrical signals, the transducers located in the structure, in which each of the transducers is located in a first aperture in a transducer layer extending parallel to the front plate between two flexible connection layers (6, 10), the two flexible connection layers (6, 10) being the same for all transducers, while each transducer being co-located with a second aperture formed by a neighbouring layer and a glue layer in front or behind the location of the transducer; a processing unit adapted to process the signals from said at least two transducers and to determine whether the actuation area of the front plate was actuated; wherein the front plate extends beyond the structure in which the transducers are incorporated; wherein: in the second aperture a distance block is arranged; wherein: each transducer is further co-located with a third aperture arranged in a neighbouring layer in front or behind the two flexible connection layers (6, 7, 10) and wherein the second and the third apertures are located on opposite sides of the pressure sensitive piezoelectric transducer. a flat front plate, comprising an actuation area; a structure located behind the front plate adjacent to the actuation area; at least two pressure sensitive piezoelectric transducers adapted to convert pressure exerted by the front plate to the transducers into electrical signals, the transducers located in the structure, in which each of the transducers is located in a first aperture in a transducer layer extending parallel to the front plate between two flexible connection layers (6, 10), the two flexible connection layers (6, 10) being the same for all transducers, while each transducer being co-located with a second aperture formed by a neighbouring layer and a glue layer in front or behind the location of the transducer; a processing unit adapted to process the signals from said at least two transducers and to determine whether the actuation area of the front plate was actuated; wherein the front plate extends beyond the structure in which the transducers are incorporated; wherein: in the second aperture a distance block is arranged; wherein: each transducer is further co-located with a third aperture arranged in a neighbouring layer in front or behind the two flexible connection layers (6, 7, 10) and wherein the second and the third apertures are located on opposite sides of the pressure sensitive piezoelectric transducer.
An indoor unit for an air conditioner, comprising: a body assembly (110, 120) provided with a blower fan; a front panel disposed in front of the body assembly (110, 120) and being made of a metal material, the front panel having a bracket groove defined in a rear surface of the front panel; a support frame disposed between the body assembly (110, 120) and the front panel; and a plurality of panel brackets disposed between the front panel and the support frame and configured to couple the front panel to the support frame, each of the panel brackets including a bracket body fitted between the bracket groove and a front surface of the support frame, wherein the bracket body comprises: an inner insertion part inserted into the bracket groove; a hook part extending to be bent from the inner insertion part and being supported on a rear surface of a panel body of the front panel; a rear support part spaced apart from the hook part and being supported on a rear surface of the front panel; and a first coupling hole defined between the hook part and the rear support part and into which a panel coupling part is inserted. a body assembly (110, 120) provided with a blower fan; a front panel disposed in front of the body assembly (110, 120) and being made of a metal material, the front panel having a bracket groove defined in a rear surface of the front panel; a support frame disposed between the body assembly (110, 120) and the front panel; and a plurality of panel brackets disposed between the front panel and the support frame and configured to couple the front panel to the support frame, each of the panel brackets including a bracket body fitted between the bracket groove and a front surface of the support frame, wherein the bracket body comprises: an inner insertion part inserted into the bracket groove; a hook part extending to be bent from the inner insertion part and being supported on a rear surface of a panel body of the front panel; a rear support part spaced apart from the hook part and being supported on a rear surface of the front panel; and a first coupling hole defined between the hook part and the rear support part and into which a panel coupling part is inserted. an inner insertion part inserted into the bracket groove; a hook part extending to be bent from the inner insertion part and being supported on a rear surface of a panel body of the front panel; a rear support part spaced apart from the hook part and being supported on a rear surface of the front panel; and a first coupling hole defined between the hook part and the rear support part and into which a panel coupling part is inserted.
A guiding system for a robot, the guiding system comprising: a millimeter-wave positioning system configured to emit a radar positioning signal; receive a reflection of the radar positioning signal from the robot; and determine, using the reflection, a position of the robot relative to a base station for charging the robot; and a transmitter configured to emit a radar guiding signal for guiding the robot to the base station by following a radiation pattern of the radar guiding signal and to steer the radar guiding signal towards the position of the robot based on the determined position. a millimeter-wave positioning system configured to emit a radar positioning signal; receive a reflection of the radar positioning signal from the robot; and determine, using the reflection, a position of the robot relative to a base station for charging the robot; and emit a radar positioning signal; receive a reflection of the radar positioning signal from the robot; and determine, using the reflection, a position of the robot relative to a base station for charging the robot; and a transmitter configured to emit a radar guiding signal for guiding the robot to the base station by following a radiation pattern of the radar guiding signal and to steer the radar guiding signal towards the position of the robot based on the determined position.
An integrated circuit including a battery, comprising: a semiconductor device or a flexible printed circuit board having a surface; a bonding layer (110; 310) coupled with the surface of the semiconductor device or the flexible printed circuit board, the bonding layer comprising a first embedded conductor (120; 320); a battery cell structure (115; 315) in selective electrical contact with the surface of the semiconductor device or the flexible printed circuit board via the first embedded conductor (120; 320); and a first electrical contact (101; 301) coupled with the battery cell structure, wherein the bonding layer and the battery cell structure are sandwiched between the surface of the semiconductor device or the flexible printed circuit board and the first electrical contact; and a second embedded conductor (121; 321) embedded in the bonding layer, the surface of the semiconductor device or the flexible printed circuit board in selective electrical contact with the first electrical contact via the second embedded conductor (121; 321). a semiconductor device or a flexible printed circuit board having a surface; a bonding layer (110; 310) coupled with the surface of the semiconductor device or the flexible printed circuit board, the bonding layer comprising a first embedded conductor (120; 320); a battery cell structure (115; 315) in selective electrical contact with the surface of the semiconductor device or the flexible printed circuit board via the first embedded conductor (120; 320); and a first electrical contact (101; 301) coupled with the battery cell structure, wherein the bonding layer and the battery cell structure are sandwiched between the surface of the semiconductor device or the flexible printed circuit board and the first electrical contact; and a second embedded conductor (121; 321) embedded in the bonding layer, the surface of the semiconductor device or the flexible printed circuit board in selective electrical contact with the first electrical contact via the second embedded conductor (121; 321).
Plug-in connector element for detachable electrical contacting of a mating plug-in connector element, wherein the plug-in connector element comprises: at least one electrically conductive contact element, a housing, a contact protection element which has a columnar structure and is arranged inside the at least one electrically conductive contact element so that between the housing and the contact protection element access to the electrically conductive contact element is prevented for objects with a diameter above a defined value, characterized in that at least one temperature sensor, which at least in part is accommodated within the contact protection element and can be operated to measure a temperature of the electrically conductive contact element. at least one electrically conductive contact element, a housing, a contact protection element which has a columnar structure and is arranged inside the at least one electrically conductive contact element so that between the housing and the contact protection element access to the electrically conductive contact element is prevented for objects with a diameter above a defined value, characterized in that at least one temperature sensor, which at least in part is accommodated within the contact protection element and can be operated to measure a temperature of the electrically conductive contact element.
A gripper for electrical or optical lines (24, 24') such as wires, cables, line bundles, optical fibres having at least one gripper jaw (22, 22') which can be moved relative to a counter bearing by means of a drive arrangement, wherein the drive arrangement comprises at least one drive with adjustable force which acts on the or each gripper jaw (22, 22') via a link chain (15, 19, 19', 20, 20'), characterized in that the link chain (15, 19, 19', 20, 20') has a portion (19, 19') parallel to the drive but with an opposite direction of movement to the drive.
A cup assembly with circuit actuating capability, said cup assembly including: a cup body having a bottom recess that is defined by a recess-defining wall and that has an open end, said recess-defining wall being provided with a threaded structure; a module support having a base part that covers said open end of said bottom recess, and a threaded confining part that is connected to said base part, that is received in said bottom recess, that defines an accommodating space, and that engages threadedly with said threaded structure so as to permit said module support to be detachably secured to and embedded in said cup body; and a signal producing module mounted on said base part, received in said accommodating space, and including a signal producing member that is adapted to generate a signal upon actuation, and a first switch that is coupled to said signal producing member and that is operable to enable and disable said signal producing member; characterized in that said cup body is made from a rigid material including one of a ceramic material, glass, or metal, and said threaded structure is made from a plastic material different from said rigid material and is attached adhesively to said recess-defining wall of said bottom recess. a cup body having a bottom recess that is defined by a recess-defining wall and that has an open end, said recess-defining wall being provided with a threaded structure; a module support having a base part that covers said open end of said bottom recess, and a threaded confining part that is connected to said base part, that is received in said bottom recess, that defines an accommodating space, and that engages threadedly with said threaded structure so as to permit said module support to be detachably secured to and embedded in said cup body; and a signal producing module mounted on said base part, received in said accommodating space, and including a signal producing member that is adapted to generate a signal upon actuation, and a first switch that is coupled to said signal producing member and that is operable to enable and disable said signal producing member; characterized in that said cup body is made from a rigid material including one of a ceramic material, glass, or metal, and said threaded structure is made from a plastic material different from said rigid material and is attached adhesively to said recess-defining wall of said bottom recess.
A retinal densitometer, comprising: an illumination unit (120, 130) for outputting bleaching illumination for photo-bleaching an eye and reflectance illumination at one or more wavelengths for determining reflectance of the eye at the one or more wavelengths; an imaging device arranged to output image data corresponding to an image of the eye at the one or more wavelengths of reflectance illumination; and a control unit arranged to control the illumination unit (120, 130) and the imaging device to output the bleaching illumination, the reflectance illumination at the one or more wavelengths and the image data according to a predetermined sequence; characterised in that the control unit is further arranged to cause the illumination unit (120, 130) to output the bleaching illumination during a photo-bleaching period preceding a dark recovery period; wherein the control unit is arranged to cause the illumination unit (120, 130) to output the reflectance illumination during the dark recovery period and to cause the imaging device to periodically output image data corresponding to reflectance illumination reflected from the eye, wherein during the dark recovery period the illumination unit (120, 130) is controlled to sequentially output the reflectance illumination at each of a plurality of wavelengths according to the predetermined sequence. an illumination unit (120, 130) for outputting bleaching illumination for photo-bleaching an eye and reflectance illumination at one or more wavelengths for determining reflectance of the eye at the one or more wavelengths; an imaging device arranged to output image data corresponding to an image of the eye at the one or more wavelengths of reflectance illumination; and a control unit arranged to control the illumination unit (120, 130) and the imaging device to output the bleaching illumination, the reflectance illumination at the one or more wavelengths and the image data according to a predetermined sequence; characterised in that the control unit is further arranged to cause the illumination unit (120, 130) to output the bleaching illumination during a photo-bleaching period preceding a dark recovery period; wherein the control unit is arranged to cause the illumination unit (120, 130) to output the reflectance illumination during the dark recovery period and to cause the imaging device to periodically output image data corresponding to reflectance illumination reflected from the eye, wherein during the dark recovery period the illumination unit (120, 130) is controlled to sequentially output the reflectance illumination at each of a plurality of wavelengths according to the predetermined sequence.
An emulsion-polymerized styrene-butadiene rubber synthesizable via emulsion polymerization, comprising at a terminal: a modified functional group containing a nitrogen atom and having an SP value of 9.55 or less; or a modified functional group containing a hydroxyl group and having an SP value of less than 15.00, where the SP values are solubility parameters obtained with a Fedors method. a modified functional group containing a nitrogen atom and having an SP value of 9.55 or less; or a modified functional group containing a hydroxyl group and having an SP value of less than 15.00, where the SP values are solubility parameters obtained with a Fedors method.
A computer-based method for backward-compatible encoding of 3D video content, the method comprising: providing an original first view image of a scene at a first dynamic range; providing an original tapestry image at the first dynamic range; generating a first view image at a second dynamic range, wherein the first dynamic range is higher than the second dynamic range; predicting, by a computer and based on the original first view image, a first view image at the first dynamic range from the first view image at the second dynamic range, thereby obtaining a predicted first view image; providing, by a computer, a first displacement map, wherein the first displacement map comprises distance information between the original first view image at the first dynamic range and the original tapestry image at the first dynamic range; applying an inverse displacement operation to the predicted first view image, thereby obtaining a predicted tapestry image, wherein the inverse displacement operation comprises shifting pixels from a position in the predicted first view image to a position in the predicted tapestry image based on the first displacement map; interpolating unfilled pixels in the predicted tapestry image; and calculating a difference between the original tapestry image and the predicted tapestry image, thereby obtaining a residual, the method further comprising encoding the first view image at the second dynamic range, the first displacement map, and the residual. providing an original first view image of a scene at a first dynamic range; providing an original tapestry image at the first dynamic range; generating a first view image at a second dynamic range, wherein the first dynamic range is higher than the second dynamic range; predicting, by a computer and based on the original first view image, a first view image at the first dynamic range from the first view image at the second dynamic range, thereby obtaining a predicted first view image; providing, by a computer, a first displacement map, wherein the first displacement map comprises distance information between the original first view image at the first dynamic range and the original tapestry image at the first dynamic range; applying an inverse displacement operation to the predicted first view image, thereby obtaining a predicted tapestry image, wherein the inverse displacement operation comprises shifting pixels from a position in the predicted first view image to a position in the predicted tapestry image based on the first displacement map; interpolating unfilled pixels in the predicted tapestry image; and calculating a difference between the original tapestry image and the predicted tapestry image, thereby obtaining a residual, the method further comprising encoding the first view image at the second dynamic range, the first displacement map, and the residual.
Window or door construction, in particular a window sash or door leaf construction, comprising a frame with an offset forming a rebate, and a glazing element which bears against the frame in the region of the offset, wherein bonding agents are provided between the frame and glazing element, a seal is situated between the frame and glazing element, the seal forms a gap such that a defined layer thickness A of the bonding agent is obtained in the assembly, the bonding agent is situated laterally on the glazing element, and an auxiliary profile is provided which can be connected to the sash/leaf, characterized in that, at the auxiliary profile, the bonding agent is situated between the glazing element and auxiliary profile such that the auxiliary profile acts as a uniform substrate for the bonding agent, and the auxiliary profile is an adaptor profile by means of which the depth of the rebate can be compensated for.