mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an image display device, the method comprising the step of forming a cured resin layer by interposing a photo-curable resin composition between a protection member and a display-side panel including an image display unit and a frame member surrounding the image display unit and then photo-curing the photo-curable resin composition, the photo-curable resin composition being disposed across upper surfaces of the image display unit and the frame member, to thereby cover a gap being present between the outer circumferential edge of said image display unit and the inner circumferential edge of said frame member, wherein a resin composition having a viscosity of 3000 mPa·s or more and 12000 mPa·s or less is used as the photo-curable resin composition, wherein the resin composition has a curing shrinkage ratio of 5% or less and yields a cured product having a storage elastic modulus at a measurement frequency of 1 Hz at 25°C of 1.0 × 10 7 Pa or less, and the cured resin layer of the resin composition has a light transmittance of 90% or more in the visible region, when the thickness of the cured resin layer is 100 μm, and wherein the resin composition contains as a polymer a butadiene polymer, at least one acrylate monomer, and a photopolymerization initiator.
A milking equipment positioner for moving the milking equipment between at least two milking stalls, the positioner comprising: - a support beam; and - a first part for holding milking equipment, said first part being engagable with said support beam and movable along said support beam between a first position at a first of the at least two milking stalls and a second position at a second of the at least two milking stalls, characterized in that said positioner comprises: - a second part arranged fixedly in or at said support beam between said first and second positions, wherein one of said first and second parts includes: - sensing means provided for sensing each time said first part is moved passed said second part; and - indicating means (13d; 13c) provided for indicating whether said first part is moved to said first position or to said second position based on said sensing. - a support beam; and - a first part for holding milking equipment, said first part being engagable with said support beam and movable along said support beam between a first position at a first of the at least two milking stalls and a second position at a second of the at least two milking stalls, characterized in that said positioner comprises: - a second part arranged fixedly in or at said support beam between said first and second positions, wherein one of said first and second parts includes: - sensing means provided for sensing each time said first part is moved passed said second part; and - indicating means (13d; 13c) provided for indicating whether said first part is moved to said first position or to said second position based on said sensing.
A capsule forming composition, for manufacturing a capsule for use in a vaporizer, the capsule forming composition comprising a mixture of: hydroxypropyl-methyl cellulose (HPMC); and cellulose nanocrystals, a ratio of HPMC:CNC being between 4:1 to 7:3, the mixture dissolved in a solvent solution having a 1:2 ratio of isopropyl alcohol to water. hydroxypropyl-methyl cellulose (HPMC); and cellulose nanocrystals, a ratio of HPMC:CNC being between 4:1 to 7:3, the mixture dissolved in a solvent solution having a 1:2 ratio of isopropyl alcohol to water.
A system, comprising: a subsea pressure vessel; and a passive heat transfer apparatus including a heat pipe, wherein a portion of the heat pipe penetrates a hull or shell of the subsea pressure vessel and the heat pipe has an evaporator section disposed on an internal side of the hull or shell of the subsea pressure vessel and a condenser section disposed on an external side of the hull or shell of the subsea pressure vessel, the evaporator section being connected to the condenser section via the portion of the heat pipe that penetrates the hull or shell of the subsea pressure vessel, and wherein the heat pipe contains a working fluid which travels between the evaporator section and the condenser section and between the condenser section and the evaporator section through the portion of the heat pipe that penetrates the hull or shell of the subsea pressure vessel due to phase transitions of the working fluid. a subsea pressure vessel; and a passive heat transfer apparatus including a heat pipe, wherein a portion of the heat pipe penetrates a hull or shell of the subsea pressure vessel and the heat pipe has an evaporator section disposed on an internal side of the hull or shell of the subsea pressure vessel and a condenser section disposed on an external side of the hull or shell of the subsea pressure vessel, the evaporator section being connected to the condenser section via the portion of the heat pipe that penetrates the hull or shell of the subsea pressure vessel, and wherein the heat pipe contains a working fluid which travels between the evaporator section and the condenser section and between the condenser section and the evaporator section through the portion of the heat pipe that penetrates the hull or shell of the subsea pressure vessel due to phase transitions of the working fluid.
A porous polytetrafluoroethylene membrane having a surface coated with a liquid-repellent agent, wherein the liquid-repellent agent is a polymer obtained by polymerization of monomers, characterized in that the content of CH 2 =CHCOOCH 2 CH 2 C 6 F 13 as monomer(s) in the polymer constituting the liquid-repellent agent is at least 98.0 mol%.
A method for estimating a self-interference, SI, channel in a wireless access system supporting full duplex radio, FDR, communication, the method performed by an evolved Node-B, eNB, and the method comprising: transmitting a channel signal including a first cyclic shift variable allocated to a user equipment, UE; transmitting a downlink self-interference reference signal, DL SI-RS, for estimating the SI channel, generated on the basis of a second cyclic shift variable; receiving the DL SI-RS; receiving an uplink self-interference reference signal, UL SI-RS, generated on the basis of the first cyclic shift variable; and estimating the SI channel using the DL SI-RS and the UL SI-RS. transmitting a channel signal including a first cyclic shift variable allocated to a user equipment, UE; transmitting a downlink self-interference reference signal, DL SI-RS, for estimating the SI channel, generated on the basis of a second cyclic shift variable; receiving the DL SI-RS; receiving an uplink self-interference reference signal, UL SI-RS, generated on the basis of the first cyclic shift variable; and estimating the SI channel using the DL SI-RS and the UL SI-RS.
A force sensor device (1, 1A to 1E), comprising: a sensor chip configured to detect displacement in a predetermined axis direction; a strain generator (20, 20A) configured to transfer an applied force to the sensor chip; and an active component (32 to 35) electrically connected with the sensor chip, a board (30, 30E) including an end surface holding part and a plurality of side surface holding parts (30b to 30e) bent with respect to the end surface holding part, the active component (32 to 35) being mounted on at least one of the side surface holding parts (30b to 30e), wherein the strain generator (20, 20A) includes a base, a sensor chip mounting part to mount the sensor chip, and a plurality of pillars (22a to 22d) placed on an upper surface of the base and separately placed around the sensor chip, wherein the end surface holding part of the board (30, 30E) is fixed to upper surfaces of the pillars (22a to 22d) by an adhesive, and the force sensor device (1, 1A to 1E) being characterized in that a surface of each side surface holding part (30b to 30e) of the board (30, 30E) is fixed by an adhesive to two outward side surfaces of the pillars (22a to 22d) that are adjacent to each other. a sensor chip configured to detect displacement in a predetermined axis direction; a strain generator (20, 20A) configured to transfer an applied force to the sensor chip; and an active component (32 to 35) electrically connected with the sensor chip, a board (30, 30E) including an end surface holding part and a plurality of side surface holding parts (30b to 30e) bent with respect to the end surface holding part, the active component (32 to 35) being mounted on at least one of the side surface holding parts (30b to 30e), wherein the strain generator (20, 20A) includes a base, a sensor chip mounting part to mount the sensor chip, and a plurality of pillars (22a to 22d) placed on an upper surface of the base and separately placed around the sensor chip, wherein the end surface holding part of the board (30, 30E) is fixed to upper surfaces of the pillars (22a to 22d) by an adhesive, and the force sensor device (1, 1A to 1E) being characterized in that a surface of each side surface holding part (30b to 30e) of the board (30, 30E) is fixed by an adhesive to two outward side surfaces of the pillars (22a to 22d) that are adjacent to each other.
An air interface security method, the method comprising in a transmission protocol process the steps of: 1) a proximity coupling device transmitting a security parameter request message to a proximity card; 2) the proximity card feeding back security parameters to the proximity coupling device after receiving the security parameter request message; and 3) the proximity coupling device and the proximity card setting up a secure link between them according to the security parameters; the method characterized in that: the step 1) further comprises: the proximity coupling device transmitting a Request for Answer To Select, RATS, including the security parameter request message to the proximity card to initiate security parameter negotiation with the proximity card; the step 2) further comprises: the proximity card returning an Answer To Select, ATS, to the proximity coupling device after receiving an RATS of the proximity coupling device, wherein the ATS includes information on a support condition of the proximity card for an authentication mechanism and a cipher algorithm. 1) a proximity coupling device transmitting a security parameter request message to a proximity card; 2) the proximity card feeding back security parameters to the proximity coupling device after receiving the security parameter request message; and 3) the proximity coupling device and the proximity card setting up a secure link between them according to the security parameters; the method characterized in that: the step 1) further comprises: the proximity coupling device transmitting a Request for Answer To Select, RATS, including the security parameter request message to the proximity card to initiate security parameter negotiation with the proximity card; the step 2) further comprises: the proximity card returning an Answer To Select, ATS, to the proximity coupling device after receiving an RATS of the proximity coupling device, wherein the ATS includes information on a support condition of the proximity card for an authentication mechanism and a cipher algorithm. the proximity coupling device transmitting a Request for Answer To Select, RATS, including the security parameter request message to the proximity card to initiate security parameter negotiation with the proximity card; the step 2) further comprises: the proximity card returning an Answer To Select, ATS, to the proximity coupling device after receiving an RATS of the proximity coupling device, wherein the ATS includes information on a support condition of the proximity card for an authentication mechanism and a cipher algorithm.
A communication method performed by an electronic device, the method comprising: in response to power being supplied to the electronic device, ascertaining whether access information of an access point, AP, has previously been stored in a storage unit of the electronic device; when there is no previously stored access information, operating in a first mode, wherein the first mode comprises wirelessly outputting an advertisement signal from the electronic device; acquiring access information of the AP from an external device while outputting the advertisement signal; and when the access information of the AP is acquired, switching to a second mode to access the AP based on the acquired access information of the AP, wherein the second mode comprises searching for an advertisement signal broadcast by the AP; and when a time elapsed after the power is supplied without acquiring the access information of the AP is greater than a predetermined reference time, switching to the second mode. in response to power being supplied to the electronic device, ascertaining whether access information of an access point, AP, has previously been stored in a storage unit of the electronic device; when there is no previously stored access information, operating in a first mode, wherein the first mode comprises wirelessly outputting an advertisement signal from the electronic device; acquiring access information of the AP from an external device while outputting the advertisement signal; and when the access information of the AP is acquired, switching to a second mode to access the AP based on the acquired access information of the AP, wherein the second mode comprises searching for an advertisement signal broadcast by the AP; and when a time elapsed after the power is supplied without acquiring the access information of the AP is greater than a predetermined reference time, switching to the second mode.
A method for detecting a winning number in a roulette game, wherein a color video camera is mounted at the top of an indicator board and pointed towards the roulette wheel, the video camera output signal containing video data on the roulette wheel including the pocket ring region is digitally converted, transmitted to processor means, analyzed for determining the winning number, the result being displayed on the indicator board and wherein while analyzing the video camera output signal, the pocket ring region is identified, the angular position of the roulette wheel is determined, the probabilities of the presence of the ball in a pocket are calculated and stored for every pocket, the conclusion about the number of a sector where the ball lies being drawn using the stored probabilities and wherein the video camera output signal containing the video data on the roulette wheel is split into even-numbered and odd-numbered half-frames which are analyzed separately in dynamic processes.
Back carrier comprising a back panel and at least one shoulder strap (3, 33, 103, 133), wherein the back panel has a longitudinal extent and, in the direction of its longitudinal extent, has an upper end portion and a lower end potion, wherein the upper end portion reaches as far as the upper end of the back panel, and the back panel has a load side, which is directed towards a load which is to be carried, and the back panel has a back side, which is directed towards a user's back, wherein the shoulder strap (3, 33, 103, 133) runs on the back side, and the shoulder strap (3, 33, 103, 133) is fastened at an upper fastening location (13, 43) by way of a first strap portion (11, 41, 111, 141), in the region of the upper end portion, and is fastened at a lower fastening location (14, 44) by way of a second strap portion (12, 42, 112, 142), in the region of the lower end portion, wherein, in the region of the upper end portion, the back panel has a recess for accommodating an extension panel, and wherein, as seen in the direction of the longitudinal extent of the back panel, the recess is designed to be open towards the upper end of the back panel, wherein the recess has a base, wherein the recess has an edge which protrudes in relation to the base, wherein lateral edges of the protruding edge are connected to one another via an upper edge of the back panel, wherein the protruding edge is flush with the back side outside the recess, and a step is formed in the back side of the back panel by the protruding edge, wherein the recess has a recess width (ab) measured perpendicularly in relation to the longitudinal extent of the back panel, and wherein the recess width (ab) is at least two thirds of a lateral width (sb) of the back panel, as measured in the same direction.
An apparatus, comprising: a determining unit configured to read an override feature defined therein by an operator indicative of whether a maximum bitrate requested by a mobile station is to be used in a quality of service negotiation or whether a maximum bitrate from a home location register is to be used in the quality of service negotiation, wherein the maximum bitrate from the home location register is larger than the maximum bitrate requested by the mobile station when the determining unit determines (120, 150) to use the maximum bitrate from the home location register. a determining unit configured to read an override feature defined therein by an operator indicative of whether a maximum bitrate requested by a mobile station is to be used in a quality of service negotiation or whether a maximum bitrate from a home location register is to be used in the quality of service negotiation, wherein the maximum bitrate from the home location register is larger than the maximum bitrate requested by the mobile station when the determining unit determines (120, 150) to use the maximum bitrate from the home location register.
A woven fabric comprising a weft yarn and two warp yarns A and B, wherein the weft yarn comprises a combination of: individual yarns comprising UHMWPE yarns, and individual natural yarns, wherein the amount of yarns comprising UHMWPE yarns in the weft yarn is between 33 and 66wt% of the total amount of weft yarn; the warp yarn A comprises at least 50 wt% of a natural fiber; the warp yarn B comprises of a combination of individual UHMWPE yarns and individual natural yarns, the amount of UHMWPE yarns being between 10 and 50wt% of the total amount of warp yarn B; and the fabric has an outside layer comprising the warp yarn A and an inside layer comprising the warp yarn B and said outside and inside layer being at least partially interconnected by the weft yarn. individual yarns comprising UHMWPE yarns, and individual natural yarns, wherein the amount of yarns comprising UHMWPE yarns in the weft yarn is between 33 and 66wt% of the total amount of weft yarn; the warp yarn A comprises at least 50 wt% of a natural fiber; the warp yarn B comprises of a combination of individual UHMWPE yarns and individual natural yarns, the amount of UHMWPE yarns being between 10 and 50wt% of the total amount of warp yarn B; and the fabric has an outside layer comprising the warp yarn A and an inside layer comprising the warp yarn B and said outside and inside layer being at least partially interconnected by the weft yarn.
A shaped charge liner comprising: an axis; a first section having a substantially conical shape, a first inner surface, a lowermost apex, and a first conical angle respective to the first inner surface; a second section having a substantially frusto-conical shape, a second inner surface, and a second conical angle respective to the second inner surface; a third section having a substantially frusto-conical shape, a third inner surface, a top surface perpendicular to the axis, and a third conical angle respective to the third inner surface; wherein the first section, second section and third section are axially aligned about the axis, the second conical angle is larger than the first conical angle and the second conical angle is larger than the third conical angle; and a total height, wherein the total height is measured from the apex of the first section along the axis to a plane perpendicular to the top surface; characterised in that the first conical angle is larger than the third conical angle, wherein the first conical angle is between 44 and 52 degrees, the second conical angle is between 56 and 58 degrees, and the third conical angle is between 44 and 54 degrees. an axis; a first section having a substantially conical shape, a first inner surface, a lowermost apex, and a first conical angle respective to the first inner surface; a second section having a substantially frusto-conical shape, a second inner surface, and a second conical angle respective to the second inner surface; a third section having a substantially frusto-conical shape, a third inner surface, a top surface perpendicular to the axis, and a third conical angle respective to the third inner surface; wherein the first section, second section and third section are axially aligned about the axis, the second conical angle is larger than the first conical angle and the second conical angle is larger than the third conical angle; and a total height, wherein the total height is measured from the apex of the first section along the axis to a plane perpendicular to the top surface; characterised in that the first conical angle is larger than the third conical angle, wherein the first conical angle is between 44 and 52 degrees, the second conical angle is between 56 and 58 degrees, and the third conical angle is between 44 and 54 degrees.
A method for producing a water-absorbent resin by a multi-stage reversed-phase suspension polymerization to polymerize a water-soluble ethylenically unsaturated monomer, wherein the first stage polymerization comprising at least the following steps: performing a primary dispersion in the absence of surfactants by stirring to mix an aqueous solution of a water-soluble ethylenically unsaturated monomer containing a water-soluble radical polymerization initiator in a petroleum hydrocarbon dispersion medium in which a hydrophobic polymeric dispersion agent is dispersed or dissolved; performing a secondary dispersion by adding a surfactant to the resultant dispersion liquid; and performing a radical polymerization to obtain water-absorbent resin particles in a hydrous gel state which disperse in the petroleum hydrocarbon dispersion medium; and the second stage polymerization comprising at least the following steps: precipitating at least a part of the surfactant; stirring to mix the aqueous solution of the water-soluble ethylenically unsaturated monomer of the second stage polymerization containing a water-soluble radical polymerization initiator therein to be absorbed and aggregated in the polymerized gel at the first stage; and performing a radical polymerization again; wherein the aqueous solution of the water-soluble ethylenically unsaturated monomer is added in step to the petroleum hydrocarbon dispersion medium at an addition rate V of 0.30 [min -1] or less defined by the following Equation: V = F × A / T wherein V: Addition rate [min -1], F: Average linear flow rate from nozzle [m/min], A: Cross-sectional area of nozzle [m 2], and T: Total amount [m 3] of aqueous monomer solution added to a polymerization reaction tank. performing a primary dispersion in the absence of surfactants by stirring to mix an aqueous solution of a water-soluble ethylenically unsaturated monomer containing a water-soluble radical polymerization initiator in a petroleum hydrocarbon dispersion medium in which a hydrophobic polymeric dispersion agent is dispersed or dissolved; performing a secondary dispersion by adding a surfactant to the resultant dispersion liquid; and performing a radical polymerization to obtain water-absorbent resin particles in a hydrous gel state which disperse in the petroleum hydrocarbon dispersion medium; and precipitating at least a part of the surfactant; stirring to mix the aqueous solution of the water-soluble ethylenically unsaturated monomer of the second stage polymerization containing a water-soluble radical polymerization initiator therein to be absorbed and aggregated in the polymerized gel at the first stage; and performing a radical polymerization again;