mhurhangee/patent-ind-claim-en huggingface dataset:
A polyester composition comprising a polyester further comprising residues of: (a) at least one cyclobutanediol; (b) at least one 2,2-bis(hydroxymethyl)alkylcarboxylic acid, preferably selected from at least one of 2,2-bis(hydroxymethyl)propionic acid, 2,2-bis(hydroxymethyl)butanoic acid, 2,2-bis(hydroxymethyl)pentanoic acid, and 2,2-bis(hydroxymethyl)hexanoic acid and/or a derivative of 2,2-bis(hydroxymethyl)alkylcarboxylic acid; and (c) at least one polycarboxylic acid and/or a derivative thereof. (a) at least one cyclobutanediol; (b) at least one 2,2-bis(hydroxymethyl)alkylcarboxylic acid, preferably selected from at least one of 2,2-bis(hydroxymethyl)propionic acid, 2,2-bis(hydroxymethyl)butanoic acid, 2,2-bis(hydroxymethyl)pentanoic acid, and 2,2-bis(hydroxymethyl)hexanoic acid and/or a derivative of 2,2-bis(hydroxymethyl)alkylcarboxylic acid; and (c) at least one polycarboxylic acid and/or a derivative thereof.
A photovoltaic cell assembly , comprising: a plurality of photovoltaic cells arranged sequentially along a longitudinal direction, wherein each of the photovoltaic cells comprises a silicon wafer , a front conductive member disposed on a front surface of the silicon wafer, two electrodes disposed on a back surface of the silicon wafer, and a side conductive member that is disposed on a side surface of the silicon wafer and that is electrically connected between the front conductive member and one of the two electrodes, wherein the two electrodes extend along a transverse direction and are distributed at an interval in the longitudinal direction; and at least one conductive band , wherein the conductive band has an extension direction the same as that of the electrode, and is electrically connected to two electrodes that are close to each other and that are respectively located on two neighboring photovoltaic cells to conductively connect the two electrodes located on the two neighboring photovoltaic cells, so that the two neighboring photovoltaic cells are connected in series or connected in parallel, characterized in that the conductive band comprises two half portions whose structures are the same and that are arranged sequentially perpendicular to the extension direction of the conductive band, and the two half portions exactly respectively cover the two electrodes conductively connected by the conductive band, and in that the profile line of the upper and lower half portion respectively corresponds with the profile line of each electrode. a plurality of photovoltaic cells arranged sequentially along a longitudinal direction, wherein each of the photovoltaic cells comprises a silicon wafer , a front conductive member disposed on a front surface of the silicon wafer, two electrodes disposed on a back surface of the silicon wafer, and a side conductive member that is disposed on a side surface of the silicon wafer and that is electrically connected between the front conductive member and one of the two electrodes, wherein the two electrodes extend along a transverse direction and are distributed at an interval in the longitudinal direction; and at least one conductive band , wherein the conductive band has an extension direction the same as that of the electrode, and is electrically connected to two electrodes that are close to each other and that are respectively located on two neighboring photovoltaic cells to conductively connect the two electrodes located on the two neighboring photovoltaic cells, so that the two neighboring photovoltaic cells are connected in series or connected in parallel, characterized in that the conductive band comprises two half portions whose structures are the same and that are arranged sequentially perpendicular to the extension direction of the conductive band, and the two half portions exactly respectively cover the two electrodes conductively connected by the conductive band, and in that the profile line of the upper and lower half portion respectively corresponds with the profile line of each electrode.
A process for the polymerization of at least one addition polymerizable monomer to form a polymer composition characterized by a narrow molecular weight distribution, the process comprising: contacting a mixture of addition polymerizable monomers under addition polymerization conditions with a catalyst composition comprising the contact product of at least one addition polymerization catalyst precursor, a cocatalyst and a chain shuttling agent (CSA) having the formula R 1 [M A -R 2 -] N M A R 1 ; or a Lewis base-containing derivative thereof, or any combination thereof; wherein M A is Zn; R 1 , in each occurrence, is a monovalent hydrocarbyl moiety having from 1 to 20 carbon atoms, inclusive; R 2 , in each occurrence, is independently a hydrocarbadiyl, (CH 2 ) m , wherein m is an integer from 2 to 20, inclusive; N, on average, is from 2 to 50; wherein each alkyl zinc bond is a mono-headed CSA site (M), and each alkandiyl zinc bond is a dual-headed CSA site (D); and wherein the ratio (Q) of dual-headed CSA sites (D) to mono-headed CSA sites (M) is controlled to be a value Q > 1; and forming a multi-block copolymer, wherein said narrow molecular weight distribution is reflected by a polydispersity index (PDI) of from 1.0 to 4.0. M A is Zn; R 1 , in each occurrence, is a monovalent hydrocarbyl moiety having from 1 to 20 carbon atoms, inclusive; R 2 , in each occurrence, is independently a hydrocarbadiyl, (CH 2 ) m , N, on average, is from 2 to 50; wherein each alkyl zinc bond is a mono-headed CSA site (M), and each alkandiyl zinc bond is a dual-headed CSA site (D); and wherein the ratio (Q) of dual-headed CSA sites (D) to mono-headed CSA sites (M) is controlled to be a value Q > 1; and
An apparatus for a user equipment, UE, device, comprising baseband circuitry having a radio frequency, RF, interface configured to receive downlink signals during a plurality of slots and one or more processors configured to: identify a search space for physical downlink control channel, PDCCH, candidates by: receiving a search space configuration indicating a PDCCH monitoring periodicity and a PDCCH monitoring offset for the search space, each comprising a plurality of slots; a monitoring duration comprising a number of consecutive monitored slots in each monitoring periodicity; a monitoring pattern indicating, for each monitored slot, a first symbol of a control resource set, CORESET; a bitmap that identifies slots within the monitoring duration to be monitored according to the monitoring pattern; and determining a set of monitoring occasions corresponding to the set of selected symbols in each monitored slot of each monitoring periodicity; and decode downlink signals received in the set of monitoring occasions to search for PDCCH information for the UE. receiving a search space configuration indicating a PDCCH monitoring periodicity and a PDCCH monitoring offset for the search space, each comprising a plurality of slots; a monitoring duration comprising a number of consecutive monitored slots in each monitoring periodicity; a monitoring pattern indicating, for each monitored slot, a first symbol of a control resource set, CORESET; a bitmap that identifies slots within the monitoring duration to be monitored according to the monitoring pattern; and a PDCCH monitoring periodicity and a PDCCH monitoring offset for the search space, each comprising a plurality of slots; a monitoring duration comprising a number of consecutive monitored slots in each monitoring periodicity; a monitoring pattern indicating, for each monitored slot, a first symbol of a control resource set, CORESET; a bitmap that identifies slots within the monitoring duration to be monitored according to the monitoring pattern; and determining a set of monitoring occasions corresponding to the set of selected symbols in each monitored slot of each monitoring periodicity; and decode downlink signals received in the set of monitoring occasions to search for PDCCH information for the UE.
A power supply apparatus for a sub-module controller of a sub-module of a Modular Multilevel Converter, MMC, comprising: a bridge circuit unit including N, N≥2, integer, energy storage units configured to store charges to a DC voltage in the sub-module of the MMC, and multiple power semiconductor devices respectively connected in parallel with the N energy storage units in a form of a bridge and connected in series with each other; characterized in a switching unit adapted to switch any one of a first output terminal (X3) formed at a first end of n, 1≤n<N, series-connected energy storage units, among the N energy storage units , and a second output terminal (X4) formed at a first end of m, n<m≤N, series-connected energy storage units; and a DC/DC converter adapted to convert a voltage, output through the first output terminal (X3) or the second output terminal (X4) depending on the switching state of the switching unit , into a low voltage required to drive the sub-module controller, and supplying the lower voltage to the sub-module controller. a bridge circuit unit including N, N≥2, integer, energy storage units configured to store charges to a DC voltage in the sub-module of the MMC, and multiple power semiconductor devices respectively connected in parallel with the N energy storage units in a form of a bridge and connected in series with each other; a switching unit adapted to switch any one of a first output terminal (X3) formed at a first end of n, 1≤n<N, series-connected energy storage units, among the N energy storage units , and a second output terminal (X4) formed at a first end of m, n<m≤N, series-connected energy storage units; and a DC/DC converter adapted to convert a voltage, output through the first output terminal (X3) or the second output terminal (X4) depending on the switching state of the switching unit , into a low voltage required to drive the sub-module controller, and supplying the lower voltage to the sub-module controller.
A computer-implemented method for processing images of breast tissue, the computer-implemented method comprising: feeding image data of a plurality of images of a breast as an input into an image processor of an image generation and display system; identifying , by the image processor, image portions depicting breast tissue and image portions depicting a high density element generated by imaging the high density object together with breast tissue; executing , by the image processor, a first image processing method comprising: enhancing identified image portions depicting breast tissue, suppressing identified image portions depicting the high density element, and generating, a first two-dimensional synthesized image based at least in part upon enhanced breast tissue image portions and suppressed high density element image portions; executing , by the image processor, a second image processing method comprising: enhancing identified image portions depicting the high density element, and generating a second 2D synthesized image based at least in part upon enhanced high density element portions; combining , by the image processor, the first 2D synthesized image generated by the first image processing method and the second 2D synthesized image generated by the second image processing method to generate a 2D composite synthesized image; and presenting the 2D composite synthesized image through a display of the image generation and display system. feeding image data of a plurality of images of a breast as an input into an image processor of an image generation and display system; identifying , by the image processor, image portions depicting breast tissue and image portions depicting a high density element generated by imaging the high density object together with breast tissue; executing , by the image processor, a first image processing method comprising: enhancing identified image portions depicting breast tissue, suppressing identified image portions depicting the high density element, and generating, a first two-dimensional synthesized image based at least in part upon enhanced breast tissue image portions and suppressed high density element image portions; executing , by the image processor, a second image processing method comprising: enhancing identified image portions depicting the high density element, and generating a second 2D synthesized image based at least in part upon enhanced high density element portions; combining , by the image processor, the first 2D synthesized image generated by the first image processing method and the second 2D synthesized image generated by the second image processing method to generate a 2D composite synthesized image; and presenting the 2D composite synthesized image through a display of the image generation and display system.
A light deactivated adhesive drape system configured to be coupled to tissue, the system comprising: a drape comprising: a photosensitive adhesive layer having at least one release agent disposed within the adhesive layer, wherein the at least one release agent is configured to weaken a bond of the adhesive layer to the tissue upon exposure to at least one of a plurality of light wavelengths, and a flexible film layer; and a removable filter layer configured to block the plurality of light wavelengths that activate the at least one release agent, wherein the plurality of light wavelengths are wavelengths comprising a portion of the visible light spectrum, wherein the filter layer is configured to be removable upon exposure to a solvent. a drape comprising: a photosensitive adhesive layer having at least one release agent disposed within the adhesive layer, wherein the at least one release agent is configured to weaken a bond of the adhesive layer to the tissue upon exposure to at least one of a plurality of light wavelengths, and a flexible film layer; and a photosensitive adhesive layer having at least one release agent disposed within the adhesive layer, wherein the at least one release agent is configured to weaken a bond of the adhesive layer to the tissue upon exposure to at least one of a plurality of light wavelengths, and a flexible film layer; and a removable filter layer configured to block the plurality of light wavelengths that activate the at least one release agent, wherein the plurality of light wavelengths are wavelengths comprising a portion of the visible light spectrum, wherein the filter layer is configured to be removable upon exposure to a solvent.
A medical imaging device for imaging an arterio-venous, AV, fistula of a hemodialysis patient comprising: a housing having an opening extending therethrough, the opening being sized to accommodate an arm of the hemodialysis patient; an arm support configured to support the arm of the hemodialysis patient when the arm extends through the opening in the housing ; a rotating wheel disposed within the housing and configured to rotate about the opening; a light source disposed within the housing on the rotating wheel , the light source being configured to illuminate at least a portion of the arm that is within the opening, the portion of the arm including the AV fistula ; and an imaging sensor disposed within the housing on the rotating wheel and configured to produce video images of the AV fistula . a housing having an opening extending therethrough, the opening being sized to accommodate an arm of the hemodialysis patient; an arm support configured to support the arm of the hemodialysis patient when the arm extends through the opening in the housing ; a rotating wheel disposed within the housing and configured to rotate about the opening; a light source disposed within the housing on the rotating wheel , the light source being configured to illuminate at least a portion of the arm that is within the opening, the portion of the arm including the AV fistula ; and an imaging sensor disposed within the housing on the rotating wheel and configured to produce video images of the AV fistula .
A method of manufacturing a cutting tool using a laser source emitting laser (L1, L2), the cutting tool comprising a base material and a diamond single crystal material fixed to the base material , the diamond single crystal material having a rake face , a flank face continuous with the rake face , and a cutting edge formed by a ridgeline serving as a boundary between the rake face and the flank face , the method comprising: a flank face irradiation step (S3) of applying the laser (L2) to the diamond single crystal material along the cutting edge from a side of the flank face , and being characterised by : the laser (L2) having a peak output of less than 1 W and a pulse width of 1×10 -12 seconds or less in the flank face irradiation step (S3). a flank face irradiation step (S3) of applying the laser (L2) to the diamond single crystal material along the cutting edge from a side of the flank face , and being characterised by : the laser (L2) having a peak output of less than 1 W and a pulse width of 1×10 -12 seconds or less in the flank face irradiation step (S3).
A label comprising an electronic chip intended to be applied on a bottle of liquid, in particular for an alcoholic beverage or perfume, the label including: - a first layer (S), called support layer (S), - a second layer (E), called electronic chip layer (E), comprising at least an electronic chip and an antenna connected to the electronic chip, the electronic chip layer including a first face in contact with the support layer and a second face opposite the first face, and - a third layer (P), called customization layer (P), having a first face in contact with the second face of the electronic chip layer and a second face opposite the first face of the customization layer (P), in which each layer (S, E, P) has two faces and the three layers (S, E, P) are superimposed in a stacking direction, and wherein the customization layer (P) comprises at least one sublayer (C5), called metal sublayer (C5), made from a metal material, the metal sublayer (C5) having a thickness along the stacking direction being less than or equal to 35 micrometers. - a first layer (S), called support layer (S), - a second layer (E), called electronic chip layer (E), comprising at least an electronic chip and an antenna connected to the electronic chip, the electronic chip layer including a first face in contact with the support layer and a second face opposite the first face, and - a third layer (P), called customization layer (P), having a first face in contact with the second face of the electronic chip layer and a second face opposite the first face of the customization layer (P),
A method for implementing network slicing in a 5G network comprising a session management function, SMF, , a user plane function, UPF, instance configured to serve a plurality of network slices (A,B), and a plurality of UPF gateway instances (740-1, 740-2), wherein a given UPF gateway instance is configured to serve a given network slice, wherein the UPF gateway instances are configured with UPF provisioning information identifying which UPF gateway instance is configured to serve a given network slice, the method comprising: selecting (S9h), by the SMF, one of the UPF gateway instances (740-2) for a Protocol Data Unit ,PDU, session; exchanging (S9i, S9l), between the SMF and the selected UPF gateway instance, information related to establishment of the PDU session; exchanging (S9j, S9k), over an enhanced N4 interface between the selected UPF gateway instance and the UPF instance, the information related to establishment of the PDU session; in response to the UPF instance receiving (S9q) packet data for the PDU session, determining, by the UPF instance based on the information, that the received packet data belongs to the network slice associated with the selected UPF gateway instance; and forwarding the packet data to the network slice associated with the selected UPF gateway instance. selecting (S9h), by the SMF, one of the UPF gateway instances (740-2) for a Protocol Data Unit ,PDU, session; exchanging (S9i, S9l), between the SMF and the selected UPF gateway instance, information related to establishment of the PDU session; exchanging (S9j, S9k), over an enhanced N4 interface between the selected UPF gateway instance and the UPF instance, the information related to establishment of the PDU session; in response to the UPF instance receiving (S9q) packet data for the PDU session, determining, by the UPF instance based on the information, that the received packet data belongs to the network slice associated with the selected UPF gateway instance; and forwarding the packet data to the network slice associated with the selected UPF gateway instance.
A method of controlling an air conditioner comprising an outdoor unit (ODU); and a plurality of indoor units (IDU) respectively connected to the outdoor unit (ODU) and comprising a vane for adjusting a wind direction, and a fan for forming an air flow, the method comprising: detecting an indoor air temperature (Ta) around each of the plurality of indoor units (IDU) through a temperature sensor disposed in each of the plurality of indoor units (IDU) (S420); specifying an indoor unit (IDU) having a temperature imbalance as a target indoor unit based on the indoor air temperature (Ta) around each of the plurality of indoor units (IDU) detected through the temperature sensor (S441); specifying indoor units (IDU) adjacent to the target indoor unit as a support indoor unit (S442); and performing a support operation for resolving a temperature imbalance of the target indoor unit by adjusting a vane and a fan of the support indoor unit (S471), characterized in that : performing a support operation (S471) comprises setting a support temperature (Tspt_i) of the support indoor unit based on a difference between a set temperature of the support indoor unit and a set temperature of the target indoor unit, wherein the support temperature of the support indoor unit is a set temperature of the support indoor unit in performing the support operation. detecting an indoor air temperature (Ta) around each of the plurality of indoor units (IDU) through a temperature sensor disposed in each of the plurality of indoor units (IDU) (S420); specifying an indoor unit (IDU) having a temperature imbalance as a target indoor unit based on the indoor air temperature (Ta) around each of the plurality of indoor units (IDU) detected through the temperature sensor (S441); specifying indoor units (IDU) adjacent to the target indoor unit as a support indoor unit (S442); and performing a support operation for resolving a temperature imbalance of the target indoor unit by adjusting a vane and a fan of the support indoor unit (S471), characterized in that : performing a support operation (S471) comprises setting a support temperature (Tspt_i) of the support indoor unit based on a difference between a set temperature of the support indoor unit and a set temperature of the target indoor unit, wherein the support temperature of the support indoor unit is a set temperature of the support indoor unit in performing the support operation. performing a support operation (S471) comprises setting a support temperature (Tspt_i) of the support indoor unit based on a difference between a set temperature of the support indoor unit and a set temperature of the target indoor unit, wherein the support temperature of the support indoor unit is a set temperature of the support indoor unit in performing the support operation.