mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a braided upper using a braiding machine comprising: connecting a first shoe last and a second shoe last to each other by a non-rigid connection mechanism ; locating the first shoe last adjacent a second opening of a passageway , wherein the passageway extends through an enclosure of the braiding machine and wherein a track of the braiding machine extends around the enclosure ; passing the first shoe last through the passageway from the second opening to a first opening ; passing the first shoe last from a first side of a braiding point to a second side of the braiding point of the braiding machine ; wherein the braiding machine further includes a plurality of spools located along the track , the plurality of spools including a first spool and a second spool , the first spool being adjacent to the second spool , wherein as the first spool moves the second spool remains stationary; and advancing the first shoe last through the braiding machine , wherein the connection mechanism is tensioned such that the second shoe last is pulled though the braiding machine and the braiding point, and as each of the plurality of spools is passed around the track, thread is deposited around the first shoe last .
A data scheduling method, comprising: obtaining , by a wireless communications device, to-be-transmitted data; determining , by the wireless communications device, a subband used to transmit the to-be-transmitted data according to a quality of service class identifier, QCI, of the to-be-transmitted data and a correspondence between the QCI and an identity of the subband, wherein the identity of the subband indicates the determined subband; determining, by the wireless communications device according to the QCI of the to-be-transmitted data, an identity of a Media Access Control, MAC, entity used to schedule the to-be-transmitted data, entity uniquely corresponds to one subband; creating, by the wireless communications device, the MAC entity according to the identity of the MAC entity; setting, by the wireless communications device, the scheduling period of the MAC entity to be equal to the transmission time interval TTI of the determined subband; and scheduling , by the wireless communications device, the to-be-transmitted data onto the determined subband according to a scheduling period of the MAC entity by using the MAC entity. obtaining , by a wireless communications device, to-be-transmitted data; determining , by the wireless communications device, a subband used to transmit the to-be-transmitted data according to a quality of service class identifier, QCI, of the to-be-transmitted data and a correspondence between the QCI and an identity of the subband, wherein the identity of the subband indicates the determined subband; determining, by the wireless communications device according to the QCI of the to-be-transmitted data, an identity of a Media Access Control, MAC, entity used to schedule the to-be-transmitted data, entity uniquely corresponds to one subband; creating, by the wireless communications device, the MAC entity according to the identity of the MAC entity; setting, by the wireless communications device, the scheduling period of the MAC entity to be equal to the transmission time interval TTI of the determined subband; and scheduling , by the wireless communications device, the to-be-transmitted data onto the determined subband according to a scheduling period of the MAC entity by using the MAC entity.
A cosmetic composition comprising: a) a first film-forming polymer having a contact angle of at least 85°, where contact angle means the angle at which a water/vapor interface meets a solid surface at a temperature of 25 °C and is measured in accordance with the procedure in the description, wherein the first film-forming polymer comprising an MQ silicone resin; b) a second film-forming polymer having a contact angle of at least 85°, wherein the second film-forming polymer comprising a T silicone resin; c) a lipid having a melting point of at least 5°C, where melting point refers to the temperature at which it changes state from solid to liquid at atmospheric pressure; d) optical particle; and e) at least 20% of water by weight of the composition, where silicone resin refers to silicone material which is formed by branched, and/or cage-like oligosiloxanes having three-dimensional structure; wherein the first film-forming polymer is different from the second film-forming polymer; and wherein the lipid comprises fatty acid, soap, fatty alcohol, fatty ester, wax, steroid, ceramide or a mixture thereof, wherein the optical particle is present in amount of 0.1 to 2% by weight of the composition. a) a first film-forming polymer having a contact angle of at least 85°, where contact angle means the angle at which a water/vapor interface meets a solid surface at a temperature of 25 °C and is measured in accordance with the procedure in the description, wherein the first film-forming polymer comprising an MQ silicone resin; b) a second film-forming polymer having a contact angle of at least 85°, wherein the second film-forming polymer comprising a T silicone resin; c) a lipid having a melting point of at least 5°C, where melting point refers to the temperature at which it changes state from solid to liquid at atmospheric pressure; d) optical particle; and e) at least 20% of water by weight of the composition, where silicone resin refers to silicone material which is formed by branched, and/or cage-like oligosiloxanes having three-dimensional structure; wherein the first film-forming polymer is different from the second film-forming polymer; and wherein the lipid comprises fatty acid, soap, fatty alcohol, fatty ester, wax, steroid, ceramide or a mixture thereof, wherein the optical particle is present in amount of 0.1 to 2% by weight of the composition. where silicone resin refers to silicone material which is formed by branched, and/or cage-like oligosiloxanes having three-dimensional structure; wherein the first film-forming polymer is different from the second film-forming polymer; and wherein the lipid comprises fatty acid, soap, fatty alcohol, fatty ester, wax, steroid, ceramide or a mixture thereof, wherein the optical particle is present in amount of 0.1 to 2% by weight of the composition.
A securing strap for an equine hoof boot , the strap being configured for securing the boot to a horse's hoof at a location above the horse's coronary band and for fixing to the boot at generally central locations on a front and rear of the boot, wherein the strap has two sections , each section configured to extend either side of the horse's pastern bone, the two sections configured for coming together at a location above the horse's coronary band for securement to the hoof, wherein the two sections come together at a centrally positioned coupler above the front of the boot .
A connector comprising a contact and a housing which holds the contact, wherein: the contact is provided with an insulation-displacement connection portion to be connected to a cable ; the insulation-displacement connection portion has two insulation-displacement blades and has a narrow slit and a wide slit ; each of the insulation-displacement blades intersects a first direction obliquely; each of the narrow slit and the wide slit extends in the first direction; in a second direction perpendicular to the first direction, the narrow slit is smaller than the wide slit in size; wherein the insulation-displacement blades are different from each other in position in the first direction and correspond to the narrow slit , wherein an end of one of the insulation-displacement blades is on an extension of an inner edge portion defining the narrow slit and an end of the other one of the insulation-displacement blades is on an extension of the other inner edge portion defining the narrow slit , and in the first direction, one of the insulation-displacement blades is located between the narrow slit and the wide slit , characterized in that , in the second direction, a middle of the wide slit is different from a middle of the narrow slit in position. the contact is provided with an insulation-displacement connection portion to be connected to a cable ; the insulation-displacement connection portion has two insulation-displacement blades and has a narrow slit and a wide slit ; each of the insulation-displacement blades intersects a first direction obliquely; each of the narrow slit and the wide slit extends in the first direction; in a second direction perpendicular to the first direction, the narrow slit is smaller than the wide slit in size; wherein the insulation-displacement blades are different from each other in position in the first direction and correspond to the narrow slit , wherein an end of one of the insulation-displacement blades is on an extension of an inner edge portion defining the narrow slit and an end of the other one of the insulation-displacement blades is on an extension of the other inner edge portion defining the narrow slit , and in the first direction, one of the insulation-displacement blades is located between the narrow slit and the wide slit , characterized in that , in the second direction, a middle of the wide slit is different from a middle of the narrow slit in position.
An expandable composition comprising: - one or more heat activated blowing agents that expand the composition 100% to 3000% above its original volume when exposed to any temperature in the range of from 148.9 °C (300 °F) to 190.6 °C (375 °F) and the blowing agents and optional blowing agent activators being present in a range from 0.0001% by weight to 10% by weight in the expandable composition; - one or more ethylene-propylene-diene monomer elastomers (EPDM), wherein the overall expandable polymer composition includes between 4% and 13% by weight EPDM; - a phenolic resin which is a phenol-formaldehyde resole based resin, wherein the concentration of phenolic resin is from 0.5 to 2.0% by weight of the expandable polymer composition; - one or more ethylene terpolymers containing ethylene monomer, a second monomer chosen from either vinyl acetate or acrylate chemical families and a third, chemically reactive, monomer; - one or more curing agent at levels between 0.01 % and 7 % by weight of the expandable polymer composition, the curing agent comprising one ore more peroxide-based curing agent; and - a crosslinking acrylic monomer in the amount between 0.01 % to 3% by weight of the expandable composition, wherein the acrylic monomer is a dipentaerythritol pentaacrylate. - one or more heat activated blowing agents that expand the composition 100% to 3000% above its original volume when exposed to any temperature in the range of from 148.9 °C (300 °F) to 190.6 °C (375 °F) and the blowing agents and optional blowing agent activators being present in a range from 0.0001% by weight to 10% by weight in the expandable composition; - one or more ethylene-propylene-diene monomer elastomers (EPDM), wherein the overall expandable polymer composition includes between 4% and 13% by weight EPDM; - a phenolic resin which is a phenol-formaldehyde resole based resin, wherein the concentration of phenolic resin is from 0.5 to 2.0% by weight of the expandable polymer composition; - one or more ethylene terpolymers containing ethylene monomer, a second monomer chosen from either vinyl acetate or acrylate chemical families and a third, chemically reactive, monomer; - one or more curing agent at levels between 0.01 % and 7 % by weight of the expandable polymer composition, the curing agent comprising one ore more peroxide-based curing agent; and - a crosslinking acrylic monomer in the amount between 0.01 % to 3% by weight of the expandable composition, wherein the acrylic monomer is a dipentaerythritol pentaacrylate.
A computer-implemented method comprising: concurrently streaming video data to a plurality of client devices based, at least in part, on joint state data that comprises a current frame value identifying a currently-viewed frame of a plurality of frames of the video data; receiving, from a particular client device of the plurality of client devices, a plurality of drawing data updates for a drawing annotation performed on a particular frame of the plurality of frames at the particular client device, the plurality of drawing data updates being received over a particular timespan; during the particular timespan, transmitting, to the client devices of the plurality of client devices other than the particular client device, drawing data updates of the plurality of drawing data updates, the client devices being configured to display, during the particular timespan and based on the drawing data update of the plurality of drawing data updates, an updated version of the drawing annotation on the particular frame displayed at the client devices; detecting a freeze condition based on the plurality of drawing updates; and based on the detected freeze condition, freezing the current frame value, in the joint state data, at the particular frame. concurrently streaming video data to a plurality of client devices based, at least in part, on joint state data that comprises a current frame value identifying a currently-viewed frame of a plurality of frames of the video data; receiving, from a particular client device of the plurality of client devices, a plurality of drawing data updates for a drawing annotation performed on a particular frame of the plurality of frames at the particular client device, the plurality of drawing data updates being received over a particular timespan; during the particular timespan, transmitting, to the client devices of the plurality of client devices other than the particular client device, drawing data updates of the plurality of drawing data updates, the client devices being configured to display, during the particular timespan and based on the drawing data update of the plurality of drawing data updates, an updated version of the drawing annotation on the particular frame displayed at the client devices; detecting a freeze condition based on the plurality of drawing updates; and based on the detected freeze condition, freezing the current frame value, in the joint state data, at the particular frame.
A specimen analysis apparatus, comprising a measuring part for performing measurement for specimen analysis; a display part ; and a control part , wherein the control part is configured to control the measuring part and to analyze measurement data from the measuring part , to display on the display part an alarm display region displaying an alarm of a failure occurred in the measuring part , and a recovery operation display region displaying a recovery operation to cancel the alarm displayed in the alarm display region , and, when multiple alarms have occurred, to display multiple recovery operations to cancel them in the order of from higher priority to lower priority, wherein the control part is configured to display, together with the multiple recovery operations, a command button for every recovery operation of the multiple recovery operations at a position adjacent to the display of each recovery operation. the control part is configured to control the measuring part and to analyze measurement data from the measuring part , to display on the display part an alarm display region displaying an alarm of a failure occurred in the measuring part , and a recovery operation display region displaying a recovery operation to cancel the alarm displayed in the alarm display region , and, when multiple alarms have occurred, to display multiple recovery operations to cancel them in the order of from higher priority to lower priority, wherein the control part is configured to display, together with the multiple recovery operations, a command button for every recovery operation of the multiple recovery operations at a position adjacent to the display of each recovery operation.
A splicing tape (100; 101) configured to splice an end edge portion (R) of a sheet material roll (B1) to a further sheet material (B2), said splicing tape (100; 101) comprising: - a first layer of adhesive material (A1) configured to be coupled on a portion of the outer turn of the sheet material roll (B1); - a second layer of adhesive material (A2) configured to be coupled to the further sheet material (B2); - a splitting assembly , comprised between said first adhesive layer (A1) and said second adhesive layer (A2), said splitting assembly comprising a supporting layer (15; 16) and polymeric material layer , wherein said supporting layer (15; 16) comprises at least a substantially planar face and said polymeric layer is coupled to said substantially planar face in a coupling configuration of the splicing tape (100; 101), said polymeric layer comprising a polymeric mixture of ethylene vinyl acetate (EVA) and polyethylene (PE), the overall configuration being such that when an external splitting force due to a dragging force, of the further sheet material (B2) acting on the splicing tape (100; 101), exceeds an adhesion force between said substantially planar face of said supporting layer (15; 16) and said polymeric layer , said splitting assembly is split allowing the obtaining of a junction between the sheet material roll (B1) and the further sheet material (B2) by means of said second adhesive layer (A2), in such a way that said polymeric layer and said supporting layer (15; 16) lie, respectively, on opposite faces of the obtained junction. - a first layer of adhesive material (A1) configured to be coupled on a portion of the outer turn of the sheet material roll (B1); - a second layer of adhesive material (A2) configured to be coupled to the further sheet material (B2); - a splitting assembly , comprised between said first adhesive layer (A1) and said second adhesive layer (A2), said splitting assembly comprising a supporting layer (15; 16) and polymeric material layer , wherein said supporting layer (15; 16) comprises at least a substantially planar face and said polymeric layer is coupled to said substantially planar face in a coupling configuration of the splicing tape (100; 101), said polymeric layer comprising a polymeric mixture of ethylene vinyl acetate (EVA) and polyethylene (PE), the overall configuration being such that when an external splitting force due to a dragging force, of the further sheet material (B2) acting on the splicing tape (100; 101), exceeds an adhesion force between said substantially planar face of said supporting layer (15; 16) and said polymeric layer , said splitting assembly is split allowing the obtaining of a junction between the sheet material roll (B1) and the further sheet material (B2) by means of said second adhesive layer (A2), in such a way that said polymeric layer and said supporting layer (15; 16) lie, respectively, on opposite faces of the obtained junction.
Carrier plate for a floor, wall or ceiling structure, which has a film-like plate made of plastic having a plurality of protrusions , having an adhesion-enhancing layer on a first plate side which follows the contours of the first plate side , having a further layer which engages on a second plate side opposite the first plate side , wherein the further layer abuts the protrusions , which span recesses provided between them, characterised in that the protrusions are formed to protrude alternately from a central plane of the film-like plate , such that a plurality of rows and columns are formed, in which protrusions and recesses are alternately lined up and only recesses are lined up along a diagonal to the rows and columns in a direction along the diagonal and only protrusions are lined up at right angles to the diagonal along a further diagonal , and that the number of protrusions is greater than 9,000 units/sqm.
A method of applying a protective film to a construction panel comprising: a) selectively applying an adhesive composition to a peripheral region of a surface of the construction panel at a coat weight of from about 15 to about 25 grams per square metre; b) applying a further adhesive composition to the surface of the construction panel at a coat weight of from about 30 to about 100 grams per square metre prior to the step of selectively applying an adhesive composition to a peripheral region and before applying the protective film to the construction panel; and c) applying the protective film to the surface of the construction panel to bond the protective film to the construction panel; wherein the surface is a top surface or bottom surface of the panel; and wherein said peripheral region is an area of the surface which extends from an edge of the construction panel and across from about 0.1 % to about 25% of the width of the surface . a) selectively applying an adhesive composition to a peripheral region of a surface of the construction panel at a coat weight of from about 15 to about 25 grams per square metre; b) applying a further adhesive composition to the surface of the construction panel at a coat weight of from about 30 to about 100 grams per square metre prior to the step of selectively applying an adhesive composition to a peripheral region and before applying the protective film to the construction panel; and c) applying the protective film to the surface of the construction panel to bond the protective film to the construction panel;
A method for producing a hexagonal boron nitride powder, comprising: step 1 of preparing a mixed powder comprising a boron powder and one or two or more boron compounds selected from the group consisting of a boron oxoacid and boron oxide, step 2 of calcining the mixed powder under a noble gas atmosphere at 1200°C or more and less than 1800°C to obtain a calcined powder, step 3 of granulating the calcined powder to obtain a granulated powder having a particle diameter of 10 to 200 μm, step 4 of melting the granulated powder under a noble gas atmosphere at 1800 to 2300°C to obtain a molten powder, and step 5 of firing the molten powder under a nitrogen gas atmosphere at 2000 to 2300°C to obtain a hexagonal boron nitride powder, wherein the obtained hexagonal boron nitride powder comprises an aggregate of primary particles of hexagonal boron nitride, and comprises boron atoms not bound to any nitrogen atom and not forming any hexagonal boron nitride molecule at a content of 1.00 to 30.00% by mass and oxygen as an impurity element at a content of 0 to 1.00% by mass. step 1 of preparing a mixed powder comprising a boron powder and one or two or more boron compounds selected from the group consisting of a boron oxoacid and boron oxide, step 2 of calcining the mixed powder under a noble gas atmosphere at 1200°C or more and less than 1800°C to obtain a calcined powder, step 3 of granulating the calcined powder to obtain a granulated powder having a particle diameter of 10 to 200 μm, step 4 of melting the granulated powder under a noble gas atmosphere at 1800 to 2300°C to obtain a molten powder, and step 5 of firing the molten powder under a nitrogen gas atmosphere at 2000 to 2300°C to obtain a hexagonal boron nitride powder, wherein the obtained hexagonal boron nitride powder comprises an aggregate of primary particles of hexagonal boron nitride, and comprises boron atoms not bound to any nitrogen atom and not forming any hexagonal boron nitride molecule at a content of 1.00 to 30.00% by mass and oxygen as an impurity element at a content of 0 to 1.00% by mass.