mhurhangee/patent-ind-claim-en huggingface dataset:
A coating composition comprising: - a polymeric coating binder; wherein the polymeric coating binder is selected from the group comprising: a (meth)acrylic coating binder, a vinylic coating binder, a silicone-based coating binder, a siloxane-based binder, or any mixture thereof; and, wherein the polymeric coating binder has a glass temperature Tg of at least 0°C and at most 30°C as measured according to ISO 11357-2; - at least one first filler, wherein the first filler comprises expanded polymeric microspheres; and - at least one second filler, wherein the second filler comprises expanded glass particles, preferably expanded silica glass particles; wherein said coating composition comprises at least 0.1% by weight and at most 25% by weight of said at least one first filler and at least one second filler combined, based on the total weight of the composition. - a polymeric coating binder; wherein the polymeric coating binder is selected from the group comprising: a (meth)acrylic coating binder, a vinylic coating binder, a silicone-based coating binder, a siloxane-based binder, or any mixture thereof; and, wherein the polymeric coating binder has a glass temperature Tg of at least 0°C and at most 30°C as measured according to ISO 11357-2; - at least one first filler, wherein the first filler comprises expanded polymeric microspheres; and - at least one second filler, wherein the second filler comprises expanded glass particles, preferably expanded silica glass particles;
Apparatus for producing a Bessel beam , comprising a beamforming element which transforms a beam incident as a plane electromagnetic wave into a Bessel beam , wherein the beamforming element comprises at least one annular lens and a Fourier optical system, wherein the beamforming element comprises an annular aperture which corresponds to the annular lens , characterised in that the annular aperture is formed by providing the annular lens in the planar regions outside its convex or concave annular regions with a reflective or absorbent coating.
A display module, characterized by comprising: a back plate comprising a back plate body and a side wall , the back plate body and the side wall being integrally formed and together defining a mounting space, a free end of the side wall being folded to form an joining flange extending in parallel with the back plate body ; a display screen , an edge of an inside surface of the display screen being fixed to an outside surface of the joining flange ; an optical film set mounted in the mounting space; the optical film set comprises a first film disposed adjacent to an inner side of the display screen , and an edge of the first film is provided with a side protrusion ; the joining flange is provided with a avoiding notch , the avoiding notch is provided with a mounting member , the mounting member is defined with a mounting sink the mounting sink is recessed relative to the outside surface of the mounting member , an outside surface, and the side protrusion is clamped in the mounting sink ; the mounting member is in an elongated strip shape, and both ends of the mounting member in a longitudinal direction are riveted and fixed to two opposite side edges of the notch ; and the side protrusion is defined with a hanging hole , the mounting sink is provided with a hooking protrusion , and the hanging hole is engaged with the hooking protrusion . a back plate comprising a back plate body and a side wall , the back plate body and the side wall being integrally formed and together defining a mounting space, a free end of the side wall being folded to form an joining flange extending in parallel with the back plate body ; a display screen , an edge of an inside surface of the display screen being fixed to an outside surface of the joining flange ; an optical film set mounted in the mounting space; the optical film set comprises a first film disposed adjacent to an inner side of the display screen , and an edge of the first film is provided with a side protrusion ; the joining flange is provided with a avoiding notch , the avoiding notch is provided with a mounting member , the mounting member is defined with a mounting sink the mounting sink is recessed relative to the outside surface of the mounting member , an outside surface, and the side protrusion is clamped in the mounting sink ; the mounting member is in an elongated strip shape, and both ends of the mounting member in a longitudinal direction are riveted and fixed to two opposite side edges of the notch ; and the side protrusion is defined with a hanging hole , the mounting sink is provided with a hooking protrusion , and the hanging hole is engaged with the hooking protrusion .
Method for multi-stream transmission of symbols to be transmitted sampled at a frequency F0 corresponding to communications of different types, in particular of sporadic type (MTC) and of cellular type (MBB), implementing multi-carrier modulation with M sub-carriers using, whatever the type of communication, the same frequency-time transform (IFFT) of a size determined by the number M of sub-carriers, such that communication of cellular type is implemented with OFDM modulation, characterized in that the method samples the frequency-time transform (IFFT) at a frequency 2 × F0, in that , in order to produce OFDM modulation, the method temporally stretches a sequence of symbols which are sampled at the frequency F0 in order to deliver a sequence of symbols which are sampled at the frequency 2 × F0 and in that it filters (FIL) a sequence, of length N, of symbols which are sampled at the frequency 2 × F0 using a linear frequency filter with L = 2 coefficients which are equal to {1,w}, with w ∈ , and can be parameterized in accordance with the type of communication, N and M being natural numbers, with N < M, in order to produce N + L - 1 symbols, according to which the first filtered symbol is the result of the first symbol of the sequence weighted by the first coefficient, according to which the n th filtered symbol is the result of the difference between the n th symbol of the sequence weighted by the first coefficient and the (n - 1) th symbol of the sequence weighted with the 2 nd coefficient, with 1 < n ≤ N, and according to which the (N + 1) th filtered symbol corresponds to the n th symbol of the sequence affixed with a minus sign and weighted with the 2 nd coefficient, in that a plurality of sequences of symbols are processed in parallel with a number of symbols which may be different between the sequences and with a parameterization of the filtering coefficients, for each different type of communication, which is associated with the sequences and in that the filtered sequences are mapped to the input of the frequency-time transform, each on a sub-band in order to produce, per sub-band, OFDM modulation in a form which can be configured by parameterizing the filtering coefficients for the sub-band.
A method operable in a wireless telecommunications system operating in a radio frequency, RF, band, the method comprising: processing a transport block of data from a user equipment, UE, (112-1) at an eNodeB , the transport block comprising a cyclic redundancy check, CRC, wherein the transport block further comprises an error correction code, ECC; determining a checksum of the transport block based on the CRC at the eNodeB; if the checksum fails, transmitting , from the eNodeB to the UE, a non-acknowledgement, NACK, of the transport block based on the failed checksum that directs the UE to increase a contention window at the UE and re-transmit the transport block to the eNodeB; storing the processed transport block in a buffer; performing error correction on the processed transport block using the ECC; and if the error correction is successful, sending an acknowledgement, ACK, of successful receipt of the processed transport block to the UE (112-1) in response to correcting the errors. processing a transport block of data from a user equipment, UE, (112-1) at an eNodeB , the transport block comprising a cyclic redundancy check, CRC, wherein the transport block further comprises an error correction code, ECC; determining a checksum of the transport block based on the CRC at the eNodeB; if the checksum fails, transmitting , from the eNodeB to the UE, a non-acknowledgement, NACK, of the transport block based on the failed checksum that directs the UE to increase a contention window at the UE and re-transmit the transport block to the eNodeB; storing the processed transport block in a buffer; performing error correction on the processed transport block using the ECC; and if the error correction is successful, sending an acknowledgement, ACK, of successful receipt of the processed transport block to the UE (112-1) in response to correcting the errors.
An integrated circuit, comprising: a gate structure having a top surface; a first source or drain region ; a second source or drain region ; a first trench contact on the first source or drain region , the first trench contact having a top surface and a sidewall; a second trench contact that includes non-contiguous first and second portions, each portion having a top surface that is co-planar with the top surface of the first trench contact as well as the top surface of the gate structure , wherein a sidewall of the first portion of the second trench contact is in contact (127-131, 139a) with the sidewall of the first trench contact so as to provide an interface therebetween, and wherein the second portion of the second trench contact extends over the second source or drain region , with no contact (127-131, 139a) to the second source or drain region ; and a via that extends from the first portion of the second trench contact to an underlying conductor. a gate structure having a top surface; a first source or drain region ; a second source or drain region ; a first trench contact on the first source or drain region , the first trench contact having a top surface and a sidewall; a second trench contact that includes non-contiguous first and second portions, each portion having a top surface that is co-planar with the top surface of the first trench contact as well as the top surface of the gate structure , wherein a sidewall of the first portion of the second trench contact is in contact (127-131, 139a) with the sidewall of the first trench contact so as to provide an interface therebetween, and wherein the second portion of the second trench contact extends over the second source or drain region , with no contact (127-131, 139a) to the second source or drain region ; and a via that extends from the first portion of the second trench contact to an underlying conductor.
A method for controlling access comprising: writing information on a card in a two-dimensional code , the information including information about a card holder and a description of a movement needed for access, the movement including moving the card in at least one rotation and/or direction; scanning the card with a card scanner while performing a gesture with the card , the card scanner reading the information from the two-dimensional code on the card and recognizing the gesture; comparing the read information about a card holder with information about a card holder contained in the card scanner and the recognized gesture with the rotation and/or direction information contained in the two-dimensional code on the card ; and wherein when the information about the card holder matches information about a card holder contained in the card scanner and the performed gesture matches the description of the movement contained in the two-dimensional code , access is granted. writing information on a card in a two-dimensional code , the information including information about a card holder and a description of a movement needed for access, the movement including moving the card in at least one rotation and/or direction; scanning the card with a card scanner while performing a gesture with the card , the card scanner reading the information from the two-dimensional code on the card and recognizing the gesture; comparing the read information about a card holder with information about a card holder contained in the card scanner and the recognized gesture with the rotation and/or direction information contained in the two-dimensional code on the card ; and wherein when the information about the card holder matches information about a card holder contained in the card scanner and the performed gesture matches the description of the movement contained in the two-dimensional code , access is granted.
A building block device with 35 units as variable combinations, including a storage box and a building block group , wherein the storage box includes a base and a top cover covering the base ; the building block group includes a plurality of building blocks, the base has a storage tank for placing the building block group , the top cover can cover the base to conceal the building block group ; a bottom of the storage tank is provided with 35 locating grids for the building block group to form a single-layer planar pattern, a surface of the top cover is provided with 15 locating slots for the building block group to stack up to a five-layer trilateral cone, each building block of the building block group includes one to five units, at least one building block comprises more than one unit, said units are connected at horizontally or vertically two-dimensional angles, the building block group has 35 units. a storage box and a building block group , wherein the storage box includes a base and a top cover covering the base ; the building block group includes a plurality of building blocks, the base has a storage tank for placing the building block group , the top cover can cover the base to conceal the building block group ; a bottom of the storage tank is provided with 35 locating grids for the building block group to form a single-layer planar pattern, a surface of the top cover is provided with 15 locating slots for the building block group to stack up to a five-layer trilateral cone, each building block of the building block group includes one to five units, at least one building block comprises more than one unit, said units are connected at horizontally or vertically two-dimensional angles, the building block group has 35 units.
Method for preparing a gelled formulation for therapeutic use, characterized in that it comprises the steps of: a) being provided with an initial platelet-rich blood composition, of human or animal origin; b) heating the blood composition at a temperature of between 70oC and 85oC for at least 1 minute; c) following the heating step, cooling the blood composition for at least 1 minute; thereby converting proteins comprised in the blood composition into a gelled state. a) being provided with an initial platelet-rich blood composition, of human or animal origin; b) heating the blood composition at a temperature of between 70oC and 85oC for at least 1 minute; c) following the heating step, cooling the blood composition for at least 1 minute;
A display apparatus comprising: an organic light emitting diode, OLED, display panel configured to display an image; a heat dissipating sheet disposed at the rear of the display panel and configured to dissipate heat from the display panel; a case configured to form a rear exterior of the display apparatus; and a bottom chassis disposed between the heat dissipating sheet on the rear surface of the display panel and the case, wherein the bottom chassis comprises a stacked structure having a plastic core disposed between a first layer and a second layer , wherein the plastic core is a relatively poor heat conductor and the first and second layers are relatively good heat conductors. an organic light emitting diode, OLED, display panel configured to display an image; a heat dissipating sheet disposed at the rear of the display panel and configured to dissipate heat from the display panel; a case configured to form a rear exterior of the display apparatus; and a bottom chassis disposed between the heat dissipating sheet on the rear surface of the display panel and the case, wherein the bottom chassis comprises a stacked structure having a plastic core disposed between a first layer and a second layer , wherein the plastic core is a relatively poor heat conductor and the first and second layers are relatively good heat conductors.
A communication apparatus (100B; 100C), comprising: an acquisition unit; and a control unit characterized in that the acquisition unit is configured to acquire, from a base station apparatus , information for operating as a master for controlling a sidelink communication between other apparatuses; and the control unit is configured to perform a process for operating as the master on a basis of the information acquired by the acquisition unit , wherein the acquisition unit acquires information for operating at any operation level among two or more operation levels as operation levels of the master, the operation level being a level at which the communication apparatus (100B; 100C) is able to intervene in the sidelink communication. an acquisition unit; and a control unit characterized in that the acquisition unit is configured to acquire, from a base station apparatus , information for operating as a master for controlling a sidelink communication between other apparatuses; and the control unit is configured to perform a process for operating as the master on a basis of the information acquired by the acquisition unit , wherein the acquisition unit acquires information for operating at any operation level among two or more operation levels as operation levels of the master, the operation level being a level at which the communication apparatus (100B; 100C) is able to intervene in the sidelink communication.
A method for synchronizing a pre-recorded music accompaniment to a music playing of a user, said user's music playing being captured by at least one microphone delivering an input acoustic signal feeding a processing unit, said processing unit comprising a memory for storing data of the pre-recorded music accompaniment and providing an output acoustic signal based on said pre-recorded music accompaniment data to feed at least one loudspeaker playing the music accompaniment for said user, wherein said processing unit: - analyses the input acoustic signal to detect musical events in the input acoustic signal so as to determine a tempo in said user's music playing, - compares the detected musical events to the pre-recorded music accompaniment data to determine at least a lag diff between a timing of the detected musical events and a timing of musical events of the played music accompaniment, said lag diff being to be compensated, and is characterised in that it - adapts a timing of the output acoustic signal on the basis of: ∗ said lag diff and ∗ a synchronization function F given by: F x = { x 2 w 2 + $tempo − 2 w x + 1 if diff > 0 − x 2 w 2 + $tempo + 2 w x − 1 if diff < 0 where x is a temporal variable, $tempo is the determined tempo in said user's music playing, and w is a duration of compensation of said lag diff. - analyses the input acoustic signal to detect musical events in the input acoustic signal so as to determine a tempo in said user's music playing, - compares the detected musical events to the pre-recorded music accompaniment data to determine at least a lag diff between a timing of the detected musical events and a timing of musical events of the played music accompaniment, said lag diff being to be compensated, and is characterised in that it - adapts a timing of the output acoustic signal on the basis of: ∗ said lag diff and ∗ a synchronization function F given by: F x = { x 2 w 2 + $tempo − 2 w x + 1 if diff > 0 − x 2 w 2 + $tempo + 2 w x − 1 if diff < 0 where x is a temporal variable, $tempo is the determined tempo in said user's music playing, and w is a duration of compensation of said lag diff. ∗ said lag diff and ∗ a synchronization function F given by: F x = { x 2 w 2 + $tempo − 2 w x + 1 if diff > 0 − x 2 w 2 + $tempo + 2 w x − 1 if diff < 0 where x is a temporal variable, $tempo is the determined tempo in said user's music playing, and w is a duration of compensation of said lag diff.
A method for facilitating eye tracking control calibration, the method comprising: displaying one or more objects in sequence on a display of a computing device in communication with an eye tracking device, each object being associated with a calculation of eye parameters relating to a calculation of gaze information of a user of the computing device ; while each object of the one or more objects is displayed, receiving , from the eye tracking device, a corresponding image of at least one eye of the user; determining, for each of the one or more corresponding images, eye feature information associated with at least one eye of the user; characterized by after all of the one or more objects have been displayed and the corresponding images have been received, calculating one or more of the eye parameters and one or more geometry parameters based on the eye feature information, wherein the one or more geometry parameters indicate information associated with a location and orientation of the display relative to the eye tracking device; computing a cost function based on the calculated eye parameters and geometry parameters; and updating the calculated eye parameters and geometry parameters by minimizing the cost function. displaying one or more objects in sequence on a display of a computing device in communication with an eye tracking device, each object being associated with a calculation of eye parameters relating to a calculation of gaze information of a user of the computing device ; while each object of the one or more objects is displayed, receiving , from the eye tracking device, a corresponding image of at least one eye of the user; determining, for each of the one or more corresponding images, eye feature information associated with at least one eye of the user; characterized by after all of the one or more objects have been displayed and the corresponding images have been received, calculating one or more of the eye parameters and one or more geometry parameters based on the eye feature information, wherein the one or more geometry parameters indicate information associated with a location and orientation of the display relative to the eye tracking device; computing a cost function based on the calculated eye parameters and geometry parameters; and updating the calculated eye parameters and geometry parameters by minimizing the cost function.