mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for desubliming a target compound from a first gas mixture comprising the target compound, comprising: a desublimation means comprising a surface onto which desublimation of the target compound can occur; a cooling means that cools the desublimation means; a target compound recovery region; an inlet through which the first gas mixture can enter the apparatus such that it comes into contact with the surface of the desublimation means, wherein the inlet is located between the cooling means and the target compound recovery region on the path of the desublimation means; an outlet through which the target compound can leave the target compound recovery region; and a desublimation region; wherein the desublimation means comprises a continuous path that passes through the cooling means, the desublimation region and the target compound recovery region, wherein the desublimation means is movable such that the surface continuously circulates between the cooling means and the target compound recovery region, along the path, wherein the desublimation region is an isolated section of the path of the desublimation means, wherein the cooling means cools the desublimation means such that the temperature of the desublimation means in the desublimation region is lower than that in the target compound recovery region and wherein the flow of gas is in the opposite direction to the direction of movement of the desublimation means. a desublimation means comprising a surface onto which desublimation of the target compound can occur; a cooling means that cools the desublimation means; a target compound recovery region; an inlet through which the first gas mixture can enter the apparatus such that it comes into contact with the surface of the desublimation means, wherein the inlet is located between the cooling means and the target compound recovery region on the path of the desublimation means; an outlet through which the target compound can leave the target compound recovery region; and a desublimation region; wherein the desublimation means comprises a continuous path that passes through the cooling means, the desublimation region and the target compound recovery region, wherein the desublimation means is movable such that the surface continuously circulates between the cooling means and the target compound recovery region, along the path, wherein the desublimation region is an isolated section of the path of the desublimation means, wherein the cooling means cools the desublimation means such that the temperature of the desublimation means in the desublimation region is lower than that in the target compound recovery region and wherein the flow of gas is in the opposite direction to the direction of movement of the desublimation means.
An optical article comprising a substrate having at least one main surface coated with a first coating and, directly contacting this first coating, a precursor coating of an antifog coating, characterized in that the coating precursor of the antifog coating: - is obtained through the grafting of at least one organosilane compound having: o a polyoxyalkylene group comprising preferably less than 80 carbon atoms, more preferably less than 40 carbon atoms, and o at least one silicon atom bearing at least one hydrolyzable group, - and is further coated with a film obtained by applying onto said precursor coating a surfactant-containing composition containing at least one surfactant of formula F(CF 2) y -(CH 2 -CH 2 O) x+1 H (VIII), wherein x is an integer ranging from 1 to 14, y is an integer lower than or equal to 10, compounds of formula (VIII) in which y=6 being present in an amount of at least 90% by weight, preferably at least 95%, more preferably 100% by weight, relative to the weight of compounds (VIII) present in the composition, so as to form an antifog coating, having preferably a static contact angle with water lower than or equal to 10°, more preferably lower than or equal to 5°. - is obtained through the grafting of at least one organosilane compound having: o a polyoxyalkylene group comprising preferably less than 80 carbon atoms, more preferably less than 40 carbon atoms, and o at least one silicon atom bearing at least one hydrolyzable group, o a polyoxyalkylene group comprising preferably less than 80 carbon atoms, more preferably less than 40 carbon atoms, and o at least one silicon atom bearing at least one hydrolyzable group, - and is further coated with a film obtained by applying onto said precursor coating a surfactant-containing composition containing at least one surfactant of formula F(CF 2) y -(CH 2 -CH 2 O) x+1 H (VIII), wherein x is an integer ranging from 1 to 14, y is an integer lower than or equal to 10, compounds of formula (VIII) in which y=6 being present in an amount of at least 90% by weight, preferably at least 95%, more preferably 100% by weight, relative to the weight of compounds (VIII) present in the composition, so as to form an antifog coating, having preferably a static contact angle with water lower than or equal to 10°, more preferably lower than or equal to 5°.
Method for producing a solar cell in superstrate configuration, comprising the steps: a. Making available a transparent substrate, b. Applying a transparent front contact layer, c. Applying a CdS layer, d. Applying a sacrificial layer of a metal-halide compound consisting of Zn as the metal and Fluorine or Chlorine as the halide on the CdS layer e. Applying a CdTe layer on the sacrificial layer and break-up of the sacrificial layer, including diffusion of the major part of the metal ions into the CdS layer and the major part of the halide ions into the CdTe layer, the CdTe layer being deposited as two partial layers, wherein a first partial layer has a thickness of up to 25 % of the total CdTe layer thickness and is formed in a temperature range of room temperature until 200 °C and a second partial layer is formed in a temperature range of 350°C to 550 °C, f. Applying a back contact layer. a. Making available a transparent substrate, b. Applying a transparent front contact layer, c. Applying a CdS layer, d. Applying a sacrificial layer of a metal-halide compound consisting of Zn as the metal and Fluorine or Chlorine as the halide on the CdS layer e. Applying a CdTe layer on the sacrificial layer and break-up of the sacrificial layer, including diffusion of the major part of the metal ions into the CdS layer and the major part of the halide ions into the CdTe layer, the CdTe layer being deposited as two partial layers, wherein a first partial layer has a thickness of up to 25 % of the total CdTe layer thickness and is formed in a temperature range of room temperature until 200 °C and a second partial layer is formed in a temperature range of 350°C to 550 °C, f. Applying a back contact layer.
A sliding bearing comprising an inner ring, an outer ring, and a sliding contact member interposed therebetween, wherein said inner ring has a curved outer circumferential surface and a shaft-receiving hole which fits on a supporting shaft along an inner circumference thereof; and wherein said outer ring does not contact said inner ring and holds said sliding contact member on an inner circumferential side thereof with said outer ring covering said sliding contact member, characterised in that said sliding contact member is an annular body having a butting portion which is a disconnected portion; and said sliding contact member configured to be elastically deformable to expand the butting portion, so as to be fitted on said inner ring, is a molded body, made of a resin composition, which has a curved surface making sliding contact with said curved outer circumferential surface of said inner ring with said curved surface of said sliding contact member being opposed to said curved outer circumferential surface of said inner ring.
A system for protecting an optical road condition monitoring system from contamination, the system comprising: - a hollow first part having at least one first opening, - a hollow second part arranged at least partially within the first part, and - a coupling section configured to be coupled to the optical system, - wherein the system is configured to guide at least a part of an incoming air flow from the at least one first opening along a flow channel between an inner surface of the first part and an outer surface of the second part, - wherein the system is made of thermoplastic polyurethane or thermoplastic elastomers in order to cause the system to vibrate when being attached to a moving vehicle. - a hollow first part having at least one first opening, - a hollow second part arranged at least partially within the first part, and - a coupling section configured to be coupled to the optical system, - wherein the system is configured to guide at least a part of an incoming air flow from the at least one first opening along a flow channel between an inner surface of the first part and an outer surface of the second part, - wherein the system is made of thermoplastic polyurethane or thermoplastic elastomers in order to cause the system to vibrate when being attached to a moving vehicle.
A fluidic device (100, 200, 300, 400) comprising: a fluidic die (102, 202a-c, 302); a support element (108, 208, 308, 408) comprising a fluid channel (110, 122, 310, 322, 410) to define a fluid path (114, 314a-c) through the support element (108, 208, 308, 408) and a fluid aperture (104, 304) of the fluidic die (102, 202a-c, 302); a conductive element (112, 312) on a surface of the fluid path (114, 314a-c) and separated from the fluidic die (102, 202a-c, 302) and exposed to fluid in the fluid channel; and a conductive lead to provide an electrical coupling between a ground (106, 306, 328, 334) of the fluidic die (102, 202a-c, 302) and the conductive element (112, 312), wherein the electrical coupling between the conductive element (112, 312) and the ground (106, 306, 328, 334) of the fluidic die (102, 202a-c, 302) is to form an electrochemical cell in response to contact with an electrolyte. a fluidic die (102, 202a-c, 302); a support element (108, 208, 308, 408) comprising a fluid channel (110, 122, 310, 322, 410) to define a fluid path (114, 314a-c) through the support element (108, 208, 308, 408) and a fluid aperture (104, 304) of the fluidic die (102, 202a-c, 302); a conductive element (112, 312) on a surface of the fluid path (114, 314a-c) and separated from the fluidic die (102, 202a-c, 302) and exposed to fluid in the fluid channel; and a conductive lead to provide an electrical coupling between a ground (106, 306, 328, 334) of the fluidic die (102, 202a-c, 302) and the conductive element (112, 312), wherein the electrical coupling between the conductive element (112, 312) and the ground (106, 306, 328, 334) of the fluidic die (102, 202a-c, 302) is to form an electrochemical cell in response to contact with an electrolyte.
A device (10', 10") for levelling tiles, in particular ceramic tiles, especially consisting of the tiles of a flooring or coating of a room or other, comprising support-plate means for the lower face of corresponding tiles, in particular having an upper face for supporting said lower face of corresponding tiles, knob means for engaging the upper face of the respective tile, i.e., having a lower face adapted to engage said upper face of the respective tile, connecting means between said plate means and said knob means, in particular extending from, and in one piece with, said plate means and having means for sliding and retaining said knob means for engaging said upper face of the respective tile, and breaking means for separating said connecting means from said plate means, which are in the form of a weakening cavity provided in said plate means at said connecting means and extending within said plate means starting from the bottom, or lower, face thereof; wherein said weakening cavity has an upper defining face which extends longitudinally and has a corresponding central longitudinal, in particular flat, zone, characterized in that said weakening cavity has opposite longitudinal outermost zones (183, 183) raised with respect to said central zone, i.e., extending in height with respect to said central longitudinal zone towards the corresponding upper surface (121 or 120c) of said support-plate means for the lower face of corresponding tiles, and extending until reaching, in height, at, or near, the same upper surface (121 or 120c) of said support-plate means.
A method for mitigating edge glow at an exposed fiber surface in a carbon fiber reinforced plastic component (300; 400; 500) of a composite structure, the method comprising: applying a conductive coating material over the exposed fiber surface, characterized in that the conductive coating material has a conductivity of at least 10 4 Siemens/meter, and the conductive coating material is applied in one or more layers having a total thickness of 0.00254 to 0.00762 cm.
An apparatus comprising: decode means to decode an instance of a single instruction having one or more fields for an opcode, one or more fields to identify a source/destination matrix operand, one or more fields to identify a first plurality of source matrix operands (2101, 2103), wherein elements of the first plurality of source matrix operands (2101, 2103) are in an 8-bit integer format, one or more fields to identify a second plurality of matrix operands (2105, 2107), wherein the opcode is to indicate that execution means (2111, 3009) is to select a proper subset of data elements from the first plurality of source matrix operands (2101, 2103) based on sparsity controls from a first matrix operand of the second plurality (2105, 2107)of matrix operands, wherein the sparsity controls are to select four data elements from the first plurality of source matrix operands (2101, 2103) per row, for each element position of the source/destination matrix operand, convert pairs of elements, as selected, from a row of the first source matrix operands and pairs of elements from a column of one of the second source matrix operands to FP32, multiply converted even elements from the two specified source matrix operands to generate a first product and separately multiply converted odd elements from the specified source matrix operands to generate second product, and accumulate the first and second products with previous contents of the source/destination matrix operand; and execution means (2111, 3009) to respond to the decoded instruction as specified by the opcode. decode means to decode an instance of a single instruction having one or more fields for an opcode, one or more fields to identify a source/destination matrix operand, one or more fields to identify a first plurality of source matrix operands (2101, 2103), wherein elements of the first plurality of source matrix operands (2101, 2103) are in an 8-bit integer format, one or more fields to identify a second plurality of matrix operands (2105, 2107), wherein the opcode is to indicate that execution means (2111, 3009) is to select a proper subset of data elements from the first plurality of source matrix operands (2101, 2103) based on sparsity controls from a first matrix operand of the second plurality (2105, 2107)of matrix operands, wherein the sparsity controls are to select four data elements from the first plurality of source matrix operands (2101, 2103) per row, for each element position of the source/destination matrix operand, convert pairs of elements, as selected, from a row of the first source matrix operands and pairs of elements from a column of one of the second source matrix operands to FP32, multiply converted even elements from the two specified source matrix operands to generate a first product and separately multiply converted odd elements from the specified source matrix operands to generate second product, and accumulate the first and second products with previous contents of the source/destination matrix operand; and execution means (2111, 3009) to respond to the decoded instruction as specified by the opcode.
A wireless transmit-receive unit, WTRU,, wherein the WTRU has been configured for multicast broadcast service, MBS, wherein being configured for the MBS comprises being configured with at least one active multicast radio bearer, MRB; the WTRU comprising a processor configured to: receive a handover command; send a connection request to a target cell; receive one or more packets from the target cell; receive one or more packets from a source cell, wherein the one or more packets from the source cell are received from the source cell after the connection to the target cell; determine, based on at least one of the received one or more packets from the source cell or the received one or more packets from the target cell, that there are no missing packets; and send, based at least on the determination that there are no missing packets, a release connection request to a resource associated with the source cell, wherein the one or more packets are related to the MBS. the WTRU has been configured for multicast broadcast service, MBS, wherein being configured for the MBS comprises being configured with at least one active multicast radio bearer, MRB; the WTRU comprising a processor configured to: receive a handover command; send a connection request to a target cell; receive one or more packets from the target cell; receive one or more packets from a source cell, wherein the one or more packets from the source cell are received from the source cell after the connection to the target cell; determine, based on at least one of the received one or more packets from the source cell or the received one or more packets from the target cell, that there are no missing packets; and receive a handover command; send a connection request to a target cell; receive one or more packets from the target cell; receive one or more packets from a source cell, wherein the one or more packets from the source cell are received from the source cell after the connection to the target cell; determine, based on at least one of the received one or more packets from the source cell or the received one or more packets from the target cell, that there are no missing packets; and send, based at least on the determination that there are no missing packets, a release connection request to a resource associated with the source cell, wherein the one or more packets are related to the MBS.
A manufacturing method of a hot-rolled steel sheet, wherein cooling water is sprayed at an inside of a final stand on a lower process side of the final stand in a row of hot finishing mills, to rapidly cool a rolled material; a surface temperature of the rolled material is measured on an entry side of the final stand, to obtain an entry-side surface temperature; characterized in that an entry-side target surface temperature, which is a target surface temperature of the rolled material at the measurement position of the entry-side surface temperature, is calculated from an exit-side target surface temperature, which is a target surface temperature of the rolled material on an exit side of the final stand, based on: a temperature increase by a heat generated by rolling processing in the final stand; a temperature reduction by contact of a work roll in the final stand with the rolled material; and a temperature reduction by air cooling in transportation from the measurement position of the entry-side surface temperature to the work roll of the final stand.
A method for preparing a conducting substrate, the method comprising: 1) forming a crystalline transparent conducting layer on a substrate; 2) forming an amorphous transparent conducting layer on the crystalline transparent conducting layer; 3) forming at least one pattern open region so as to expose a part of the crystalline transparent conducting layer by patterning only the amorphous transparent conducting layer; and 4) forming a metal layer in the at least one pattern open region. 1) forming a crystalline transparent conducting layer on a substrate; 2) forming an amorphous transparent conducting layer on the crystalline transparent conducting layer; 3) forming at least one pattern open region so as to expose a part of the crystalline transparent conducting layer by patterning only the amorphous transparent conducting layer; and 4) forming a metal layer in the at least one pattern open region.
A method of forming bump sites on bond-pads in the manufacturing of microelectronic devices, comprising: providing a microelectronic workpiece having a plurality of dies, wherein individual dies include integrated circuitry and bond-pads electrically coupled to the integrated circuitry; forming a passivation structure on the workpiece; creating openings in the passivation structure to at least partially expose the bond-pads; depositing an external metal layer over the passivation structure and the bond-pads; planarizing the workpiece by placing the workpiece against a planarizing medium and moving the workpiece and/or the planarizing medium relative to each other in a manner that removes portions of the external metal layer from the passivation structure; and wherein the passivation structure has a first dielectric layer over the workpiece, a second dielectric layer on the first dielectric layer, and a third dielectric layer composed of a photo-active material on the second dielectric layer, and wherein creating openings in the passivation structure comprises developing the photo-active third dielectric layer to create a mask having holes aligned with the bond-pads and etching through the first and second dielectric layers using said mask to form openings having sidewalls that extend through the first, second and third dielectric layers and project from corresponding bond-pads, and wherein creating the openings further comprises forming shoulders in the sidewalls of the openings that extend transversely to the sidewalls. providing a microelectronic workpiece having a plurality of dies, wherein individual dies include integrated circuitry and bond-pads electrically coupled to the integrated circuitry; forming a passivation structure on the workpiece; creating openings in the passivation structure to at least partially expose the bond-pads; depositing an external metal layer over the passivation structure and the bond-pads; planarizing the workpiece by placing the workpiece against a planarizing medium and moving the workpiece and/or the planarizing medium relative to each other in a manner that removes portions of the external metal layer from the passivation structure; and wherein the passivation structure has a first dielectric layer over the workpiece, a second dielectric layer on the first dielectric layer, and a third dielectric layer composed of a photo-active material on the second dielectric layer, and wherein creating openings in the passivation structure comprises developing the photo-active third dielectric layer to create a mask having holes aligned with the bond-pads and etching through the first and second dielectric layers using said mask to form openings having sidewalls that extend through the first, second and third dielectric layers and project from corresponding bond-pads, and wherein creating the openings further comprises forming shoulders in the sidewalls of the openings that extend transversely to the sidewalls.