mhurhangee/ep-ind-claims huggingface dataset:
A decorative sheet comprising: a film layer having an upper face and a lower face, and a pressure-sensitive adhesive layer adhered to the lower face of the film layer, the pressure-sensitive adhesive layer containing a pressure sensitive adhesive composition containing an acrylic-based adhesive and 12 to 20 mass% of ammonium polyphosphate as solid components, where the total solid content of the pressure-sensitive adhesive is defined as 100 mass%, wherein a degree of polymerization of the ammonium polyphosphate is not less than 1000, and wherein a thickness of the film layer is from 10 to 350 μm, and a thickness of the pressure-sensitive adhesive layer is from 5 to 50 μm. a film layer having an upper face and a lower face, and a pressure-sensitive adhesive layer adhered to the lower face of the film layer, the pressure-sensitive adhesive layer containing a pressure sensitive adhesive composition containing an acrylic-based adhesive and 12 to 20 mass% of ammonium polyphosphate as solid components, where the total solid content of the pressure-sensitive adhesive is defined as 100 mass%, wherein a degree of polymerization of the ammonium polyphosphate is not less than 1000, and wherein a thickness of the film layer is from 10 to 350 μm, and a thickness of the pressure-sensitive adhesive layer is from 5 to 50 μm.
A compact container having a contamination-preventing cooling plate, the compact container comprising: a discharge device for discharging cosmetics; a discharge plate coupled to the discharge device and formed with a discharge hole and a coupling groove at a center thereof; and a cooling plate coupled to an upper surface of the discharge plate and formed with an outlet at a center thereof and formed of a metal material, wherein a contamination guard plate is coupled into the coupling groove of the discharge plate to form a discharge gap between the contamination guard plate and the cooling plate, wherein, in a state in which a user presses the cooling plate with a puff, the contamination guard plate is configured to block the outlet of the cooling plate except for the discharge gap. a discharge device for discharging cosmetics; a discharge plate coupled to the discharge device and formed with a discharge hole and a coupling groove at a center thereof; and a cooling plate coupled to an upper surface of the discharge plate and formed with an outlet at a center thereof and formed of a metal material, wherein a contamination guard plate is coupled into the coupling groove of the discharge plate to form a discharge gap between the contamination guard plate and the cooling plate, wherein, in a state in which a user presses the cooling plate with a puff, the contamination guard plate is configured to block the outlet of the cooling plate except for the discharge gap.
A method, in an encoding device, for communicating the state of a monitored system from the encoding device to a decoder device, wherein updates to the monitored system's state can be represented according to x(k+1)=A*x(k) + B*w(k), where x(k) is the state of the system, w(k) is the input to the system, and A and B are scalars, the method comprising: receiving measured state information x(k), the measured state information x(k) representing a first state of the monitored system; calculating a state update parameter F(k), based on a message power constraint P, a covariance N(k) of measurement noise associated with the channel over which encoded state information is to be transmitted, and the norm of the signal vector [s(k), x(k)], where s(k) is a stored state information parameter; calculating a gain parameter G(k) as a function of the message power constraint P and the norm of the difference of x(k) and s(k); calculating a message signal z(k) according to z(k) = G(k)*(x(k)-s(k)); calculating an updated version of the stored state information parameter s(k+1) according to s(k+1) = A*(s(k) + F(k)*z(k)); transmitting the message signal z(k) to the decoder device. receiving measured state information x(k), the measured state information x(k) representing a first state of the monitored system; calculating a state update parameter F(k), based on a message power constraint P, a covariance N(k) of measurement noise associated with the channel over which encoded state information is to be transmitted, and the norm of the signal vector [s(k), x(k)], where s(k) is a stored state information parameter; calculating a gain parameter G(k) as a function of the message power constraint P and the norm of the difference of x(k) and s(k); calculating a message signal z(k) according to z(k) = G(k)*(x(k)-s(k)); calculating an updated version of the stored state information parameter s(k+1) according to s(k+1) = A*(s(k) + F(k)*z(k)); transmitting the message signal z(k) to the decoder device.
A thermally conductive polymer composite material comprising: 15 to 20 parts by weight of a wholly aromatic liquid crystalline polyester resin; and 80 to 85 parts by weight of a thermally conductive additive; further comprising 5 to 50 parts by weight of a reinforcing agent based on 100 parts by weight of a total amount of the wholly aromatic liquid crystalline polyester resin and the thermally conductive additive, wherein the wholly aromatic liquid crystalline polyester resin comprises a repeating unit derived from a hydroxy benzoic acid and a repeating unit derived from a hydroxy naphthoic acid and does not comprise a repeating unit derived from an aromatic dicarboxylic acid, and wherein the wholly aromatic liquid crystalline polyester resin comprises 70 to 80 parts by mole of the repeating unit derived from the hydroxy benzoic acid and 20 to 30 parts by mole of the repeating unit derived from the hydroxy naphthoic acid. 15 to 20 parts by weight of a wholly aromatic liquid crystalline polyester resin; and 80 to 85 parts by weight of a thermally conductive additive; further comprising 5 to 50 parts by weight of a reinforcing agent based on 100 parts by weight of a total amount of the wholly aromatic liquid crystalline polyester resin and the thermally conductive additive, wherein the wholly aromatic liquid crystalline polyester resin comprises a repeating unit derived from a hydroxy benzoic acid and a repeating unit derived from a hydroxy naphthoic acid and does not comprise a repeating unit derived from an aromatic dicarboxylic acid, and wherein the wholly aromatic liquid crystalline polyester resin comprises 70 to 80 parts by mole of the repeating unit derived from the hydroxy benzoic acid and 20 to 30 parts by mole of the repeating unit derived from the hydroxy naphthoic acid.
A gRNA molecule comprising a first targeting domain that is complementary with a target domain in the CEP290 gene, wherein said first targeting domain comprises a sequence that is the same as, or differs by no more than 3 nucleotides from, a targeting domain sequence from Table 10.
Explosion-protected arrangement, with at least one carrier having a carrier surface on which several electrical and/or electronic components are arranged spaced apart from each other, with at least one covering body, with a connecting device arranged on the at least one covering body and/or on the at least one carrier to create a force-fit and/or form-fit connection between the at least one covering body and the at least one carrier, wherein the at least one covering body comprises several receiving chambers for at least some of the components, wherein the receiving chambers have an opening only on the side facing the carrier surface, wherein an annular peripheral web with a web face is present around the opening of each receiving chamber, characterised in that when the connection is created between the at least one covering body and the at least one carrier, the web face forms with the carrier face a gap which is secure against ignition breakthrough.
Electrical plug connector for charging of electric vehicles, comprising a connector housing, a mating interface structure supported and positioned within the connector housing, a positive contact pin for connection with a positive conductor of a charging cable and a negative contact pin for connection with a negative conductor of the charging cable, and a contact pin insert supporting the positive contact pin and/or the negative contact pin, wherein the positive contact pin and/or the negative contact pin are/is received and secured in position by the contact pin insert, and wherein the contact pin insert is received within the mating interface structure. a connector housing, a mating interface structure supported and positioned within the connector housing, a positive contact pin for connection with a positive conductor of a charging cable and a negative contact pin for connection with a negative conductor of the charging cable, and a contact pin insert supporting the positive contact pin and/or the negative contact pin, wherein the positive contact pin and/or the negative contact pin are/is received and secured in position by the contact pin insert, and wherein the contact pin insert is received within the mating interface structure.
A signal transmission method of a transmitter, the method comprising: estimating a transmit correlation between transmission paths; determining phase rotation values to be applied to a transmission signal from a plurality of predetermined phase rotation values stored in the transmitter based on the estimated transmit correlation; applying phase rotation to the transmission signal based on the phase rotation values, wherein the phase rotation values are determined by an equation: φ l, 0 ̃ φ l, 1 ̃ = arg max φ l, 0 φ l, 1 ∑ k ∈ subcarrier index 1 + α cos φ l, 0 + φ l, 1 2 k − φ α cos φ l, 0 − φ l, 1 2 k, where φ l, 0 ̃ and φ l, 1 ̃ denote the phase rotation values, α denotes the transmit correlation, φ α denotes a phase angle of α, and 1 denotes an index of a small unit constituting a frequency band; and transmitting the transmission signal. estimating a transmit correlation between transmission paths; determining phase rotation values to be applied to a transmission signal from a plurality of predetermined phase rotation values stored in the transmitter based on the estimated transmit correlation; applying phase rotation to the transmission signal based on the phase rotation values, wherein the phase rotation values are determined by an equation: φ l, 0 ̃ φ l, 1 ̃ = arg max φ l, 0 φ l, 1 ∑ k ∈ subcarrier index 1 + α cos φ l, 0 + φ l, 1 2 k − φ α cos φ l, 0 − φ l, 1 2 k, where φ l, 0 ̃ and φ l, 1 ̃ denote the phase rotation values, α denotes the transmit correlation, φ α denotes a phase angle of α, and 1 denotes an index of a small unit constituting a frequency band; and transmitting the transmission signal.
A method comprising: flowing a liquid sample comprising a polymer analyte over a solid stationary phase comprising inorganic-organic ethylene-bridged hybrid particles linked to an enzyme by a covalent linker in an online system under a pressure between about 2,500 psi (172 bar) and 35,000 psi (2413 bar), thereby enzymatically cleaving the polymer analyte by the enzyme covalenty linked to the BEH particles.
Process for defrosting frozen food products initially present in the form of individually frozen products (IQFs) or in the form of one or more blocks of food products agglomerated within a chamber of a mixer, comprising the steps consisting in: - injecting steam into the chamber in order to cause, where appropriate, the dissociation of the food products of the block(s) and/or soften the surface of the blocks or of the IQF products, the total amount of steam injected being less than or equal to 10% of the total weight of the products to be defrosted, - subjecting the food products to vacuum evaporation, the absolute pressure in the chamber during one or more phases of boiling vacuum in the presence of the food products being less than or equal to 10 mbar. - injecting steam into the chamber in order to cause, where appropriate, the dissociation of the food products of the block(s) and/or soften the surface of the blocks or of the IQF products, the total amount of steam injected being less than or equal to 10% of the total weight of the products to be defrosted, - subjecting the food products to vacuum evaporation, the absolute pressure in the chamber during one or more phases of boiling vacuum in the presence of the food products being less than or equal to 10 mbar.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, information for a sounding reference signal, SRS, by higher layer signaling; receiving, from the base station, a downlink control information, DCI, format including one or more transmission power control, TPC, commands for SRS transmissions of one or more terminals and an SRS request field for triggering the SRS transmissions, wherein the DCI format includes a cyclic redundancy check, CRC, scrambled by an SRS radio network temporary identifier, SRS-RNTI, and the SRS-RNTI corresponds to the DCI format; and transmitting, to the base station, the SRS based on the information for the SRS in a slot identified by a slot offset associated with the SRS. receiving, from a base station, information for a sounding reference signal, SRS, by higher layer signaling; receiving, from the base station, a downlink control information, DCI, format including one or more transmission power control, TPC, commands for SRS transmissions of one or more terminals and an SRS request field for triggering the SRS transmissions, wherein the DCI format includes a cyclic redundancy check, CRC, scrambled by an SRS radio network temporary identifier, SRS-RNTI, and the SRS-RNTI corresponds to the DCI format; and transmitting, to the base station, the SRS based on the information for the SRS in a slot identified by a slot offset associated with the SRS.
Receiver for a light transmission system, comprising a camera having an image sensor, a light-sensitive area of the image sensor comprising a plurality of rows of light-sensitive elements, the image sensor being configured such that the light-sensitive area of the image sensor is scanned row by row or column by column, and an add-on element, which is arranged such that light impinging on the light-sensitive area of the image sensor passes through the add-on element first, the add-on element comprising a plurality of strip-shaped profiled regions, and the profiled regions having a constant cross section in a preferential direction, which extends at right angles to a transverse direction, characterised in that the add-on element comprises a plurality of strip-shaped planar regions, and in that the profiled regions and the planar regions are arranged alternately in the transverse direction. a camera having an image sensor, a light-sensitive area of the image sensor comprising a plurality of rows of light-sensitive elements, the image sensor being configured such that the light-sensitive area of the image sensor is scanned row by row or column by column, and an add-on element, which is arranged such that light impinging on the light-sensitive area of the image sensor passes through the add-on element first, the add-on element comprising a plurality of strip-shaped profiled regions, and the profiled regions having a constant cross section in a preferential direction, which extends at right angles to a transverse direction, characterised in that the add-on element comprises a plurality of strip-shaped planar regions, and in that the profiled regions and the planar regions are arranged alternately in the transverse direction.
A paper cup comprising: a. a cup side wall bonded to a bottom with a peripheral portion of the cup side wall abutting a peripheral portion of the cup bottom, wherein each of the peripheral portions of the cup side wall and bottom are coated with polyethylene, and b. seal promoter between abutting coated portions of the cup side wall and bottom, wherein the seal promoter comprises polyethylenimine. a. a cup side wall bonded to a bottom with a peripheral portion of the cup side wall abutting a peripheral portion of the cup bottom, wherein each of the peripheral portions of the cup side wall and bottom are coated with polyethylene, and b. seal promoter between abutting coated portions of the cup side wall and bottom, wherein the seal promoter comprises polyethylenimine.
A control method for a multi-split air conditioner, comprising following operations: acquiring an indoor temperature of each room where an indoor unit in a group corresponding to the multi-split air conditioner is located; the control method comprising when an indoor temperature of a room satisfies an overheating condition or an overcooling condition, acquiring a target indoor unit corresponding to a first target room, the first target room having its indoor temperature satisfying the overheating condition or the overcooling condition; characterized in that the method comprises controlling other indoor units except the target indoor unit in the multi-split air conditioner to be shut down; switching an operation mode of the target indoor unit; and in that the overheating condition comprises that in a heating mode, the indoor temperature of the room is greater than a set temperature corresponding to the room, and a first temperature difference between the indoor temperature of the room and the set temperature corresponding to the room is greater than a first preset threshold; the overcooling condition comprises that in a cooling mode, the indoor temperature of the room is lower than the set temperature corresponding to the room, and a second temperature difference between the indoor temperature of the room and the set temperature corresponding to the room is greater than a second preset threshold. acquiring an indoor temperature of each room where an indoor unit in a group corresponding to the multi-split air conditioner is located; the control method comprising when an indoor temperature of a room satisfies an overheating condition or an overcooling condition, acquiring a target indoor unit corresponding to a first target room, the first target room having its indoor temperature satisfying the overheating condition or the overcooling condition; characterized in that the method comprises controlling other indoor units except the target indoor unit in the multi-split air conditioner to be shut down; switching an operation mode of the target indoor unit; and in that the overheating condition comprises that in a heating mode, the indoor temperature of the room is greater than a set temperature corresponding to the room, and a first temperature difference between the indoor temperature of the room and the set temperature corresponding to the room is greater than a first preset threshold; the overcooling condition comprises that in a cooling mode, the indoor temperature of the room is lower than the set temperature corresponding to the room, and a second temperature difference between the indoor temperature of the room and the set temperature corresponding to the room is greater than a second preset threshold.
A mixture curable to provide an intumescent coating material, wherein the mixture comprises a silicone polymer, a cross-linker, a diluent and an intumescent ingredient, wherein the mixture comprises at least 50 % by weight of the intumescent ingredient, and wherein: the intumescent ingredient comprises a phosphorus containing compound, a gas source, and a carbon source; the silicone polymer comprises at least one condensable or hydrolysable group, the at least one condensable or hydrolysable group including hydroxyl groups or alkoxy groups; and the cross-linker comprises alkyltrialkoxysilanes, or silyl functional molecules containing two or more silyl groups, each silyl group containing at least one hydrolysable group. the intumescent ingredient comprises a phosphorus containing compound, a gas source, and a carbon source; the silicone polymer comprises at least one condensable or hydrolysable group, the at least one condensable or hydrolysable group including hydroxyl groups or alkoxy groups; and the cross-linker comprises alkyltrialkoxysilanes, or silyl functional molecules containing two or more silyl groups, each silyl group containing at least one hydrolysable group.
A power machine (100; 200; 300; 900; 1000; 1200; 1300; 1400; 1500) comprising: a cab (250; 1450); and a cab door (1410; 1510; 1710) moveable with respect to the cab between a closed position and an open position and configured to allow an operator to enter into and exit out of the cab when in the open position; wherein the power machine is characterized by further comprising: a display (1404; 1406; 1530; 1730) including display material (1530; 1730) integrated into the cab door, the display configured to display information to the operator of the power machine, the display being visible to the operator when looking through the cab door when the cab door is in the closed position, and the display configured to allow at least partial visibility through the door to view a work area outside of the cab. a cab (250; 1450); and a cab door (1410; 1510; 1710) moveable with respect to the cab between a closed position and an open position and configured to allow an operator to enter into and exit out of the cab when in the open position; wherein the power machine is characterized by further comprising: a display (1404; 1406; 1530; 1730) including display material (1530; 1730) integrated into the cab door, the display configured to display information to the operator of the power machine, the display being visible to the operator when looking through the cab door when the cab door is in the closed position, and the display configured to allow at least partial visibility through the door to view a work area outside of the cab.
A method of assembling a flank wettable semiconductor device, comprising: providing an array of rectangular lead frames, wherein individual lead frames are separated by saw streets and each lead frame has leads that extend to corners of the lead frame such that each corner lead has an end that abuts two adjacent, perpendicular saw streets, and wherein each corner lead has a dimple formed at an outer surface thereof; mounting and attaching semiconductor dies to respective ones of the lead frames; electrically connecting bond pads on the dies with respective ones of the leads of the lead frames upon which the dies are mounted; encapsulating the dies and the electrical connections with a mold compound; cutting the lead frame array along the saw streets to separate individual devices from adjacent devices, whereby each device has corner bond pads that are flush with the mold compound thereof and wherein the dimples of each corner lead are exposed after the cutting. providing an array of rectangular lead frames, wherein individual lead frames are separated by saw streets and each lead frame has leads that extend to corners of the lead frame such that each corner lead has an end that abuts two adjacent, perpendicular saw streets, and wherein each corner lead has a dimple formed at an outer surface thereof; mounting and attaching semiconductor dies to respective ones of the lead frames; electrically connecting bond pads on the dies with respective ones of the leads of the lead frames upon which the dies are mounted; encapsulating the dies and the electrical connections with a mold compound; cutting the lead frame array along the saw streets to separate individual devices from adjacent devices, whereby each device has corner bond pads that are flush with the mold compound thereof and wherein the dimples of each corner lead are exposed after the cutting.