mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft component wherein the component is a partition or a light cover, and wherein the aircraft component is molded or formed from a thermoplastic polymer composition comprising: a siloxane-containing copolymer in an amount effective to provide a total of 0.2 to 6.5 wt% of siloxane units based on the total weight of the polymers in the thermoplastic polymer composition, a bromine-containing polymer in an amount effective to provide 9 to 13 wt% of bromine, based on the total weight of the polymers in the thermoplastic polymer composition, and optionally a third polymer, wherein the wt% of the siloxane-containing copolymer, the bromine-containing polymer, and the optional third polymer, sum to 100 wt%, and 0.05 to 10 wt% of a light diffuser additive, based on the total weight of polymers in the thermoplastic polymer composition; wherein a molded or formed sample of the thermoplastic polymer composition has a transmission of 20% to 90% or a haze of 70% to 99.9%, each measured using the color space CIE1931 (Illuminant C and a 2° observer) at a thickness of 3.2 mm, an OSU integrated 2 minute heat release test value of less than 65 kW-min/m 2 and a peak heat release rate of less than 65 kW/m 2 , each measured using the method of FAR F25.4, in accordance with Federal Aviation Regulation FAR 25.853 (d), and an E662 smoke test Dmax value of less than 200 when measured at a thickness of 1.6 mm. a siloxane-containing copolymer in an amount effective to provide a total of 0.2 to 6.5 wt% of siloxane units based on the total weight of the polymers in the thermoplastic polymer composition, a bromine-containing polymer in an amount effective to provide 9 to 13 wt% of bromine, based on the total weight of the polymers in the thermoplastic polymer composition, and optionally a third polymer, wherein the wt% of the siloxane-containing copolymer, the bromine-containing polymer, and the optional third polymer, sum to 100 wt%, and 0.05 to 10 wt% of a light diffuser additive, based on the total weight of polymers in the thermoplastic polymer composition; wherein a molded or formed sample of the thermoplastic polymer composition has a transmission of 20% to 90% or a haze of 70% to 99.9%, each measured using the color space CIE1931 (Illuminant C and a 2° observer) at a thickness of 3.2 mm, an OSU integrated 2 minute heat release test value of less than 65 kW-min/m 2 and a peak heat release rate of less than 65 kW/m 2 , each measured using the method of FAR F25.4, in accordance with Federal Aviation Regulation FAR 25.853 (d), and an E662 smoke test Dmax value of less than 200 when measured at a thickness of 1.6 mm. a transmission of 20% to 90% or a haze of 70% to 99.9%, each measured using the color space CIE1931 (Illuminant C and a 2° observer) at a thickness of 3.2 mm, an OSU integrated 2 minute heat release test value of less than 65 kW-min/m 2 and a peak heat release rate of less than 65 kW/m 2 , each measured using the method of FAR F25.4, in accordance with Federal Aviation Regulation FAR 25.853 (d), and an E662 smoke test Dmax value of less than 200 when measured at a thickness of 1.6 mm.
A dental matrix for use in repairing and restoring cavities with light-cured restorative material, the dental matrix comprising: a metal substrate comprising a plurality of micro-apertures , wherein the plurality of micro-apertures comprises elongate micro-apertures each having a length greater than a width, 2. characterized by at least some of the elongate micro apertures being arranged in concentric rings about a centre or centre region each with its length aligned approximately towards the centre or centre region . a metal substrate comprising a plurality of micro-apertures , wherein the plurality of micro-apertures comprises elongate micro-apertures each having a length greater than a width, 2. characterized by at least some of the elongate micro apertures being arranged in concentric rings about a centre or centre region each with its length aligned approximately towards the centre or centre region .
An electrophoresis chip comprising: a pair of resin substrates ; and a microchannel formed between the pair of resin substrates , characterised in that a cationic polymer having a quaternary onium group is fixed on at least one surface of each of the resin substrates , and the resin substrates are joined together at the surfaces on which the cationic polymer is fixed whereby to form said microchannel which comprises an inner wall on which the cationic polymer is fixed. a pair of resin substrates ; and a microchannel formed between the pair of resin substrates , characterised in that a cationic polymer having a quaternary onium group is fixed on at least one surface of each of the resin substrates , and the resin substrates are joined together at the surfaces on which the cationic polymer is fixed whereby to form said microchannel which comprises an inner wall on which the cationic polymer is fixed.
An epoxy resin, comprising an epoxy compound having a mesogen structure, wherein, when performing a process of decreasing a temperature of the epoxy resin from 150°C to 30°C at a rate of 2°C/min, and a process of increasing the temperature of the epoxy resin from 30°C to 150°C at a rate of 2°C/min, in this order, the epoxy resin has a maximum value of η'2/η'1 of 20 or less within a temperature range of from 30°C to 150°C, wherein η'1 is a dynamic shear viscosity (Pa·s) measured in the process of decreasing the temperature, and η'2 is a dynamic shear viscosity (Pa·s) measured in the process of increasing the temperature, η'1 and η'2 being measured at the same temperature and as indicated in the description, and a value of η'2 measured at 100°C is 1000 Pa·s or less, with the proviso that the epoxy resin is not any one of the epoxy resin disclosed in Example 3 of EP 3 514 190 A1, the epoxy resin A disclosed in paragraph of EP 3 597 687 A1 and the resins 1 and 3 disclosed in paragraphs and of EP 3 527 604 A1.
A method for the reconstruction of a Raman spectrum from response spectra (120a-120d) of the light intensity generated by a sample in response to an optical excitation , wherein the response spectra (120a-120d) are responses of the sample to excitations with different excitation spectra (110a-110d), wherein the response spectra (120a-120d) are mapped from their original space to their representations (130a-130d) in a working space by means of a transformation , wherein the transformation is configured such that: a sum of spectra (120a-120d) in the original space is mapped to the sum of the corresponding representations (130a-130d) in the working space and a variables shift in the original space causes a multiplication with a shift factor that is dependent on this variables shift in the working space ; characterized by the following steps: in the working space , equations (140a-140c) are set up that each put the difference between at least two representations (130a-130d) of response spectra (120a-120d) into a relationship with the product of a representation of the sought Raman spectrum in the working space with a linear combination of shift factors ; from the equations (140a-140c), the representation of the sought Raman spectrum in the working space is determined as a solution, wherein three or more response spectra (120a-120d) are used. a sum of spectra (120a-120d) in the original space is mapped to the sum of the corresponding representations (130a-130d) in the working space and a variables shift in the original space causes a multiplication with a shift factor that is dependent on this variables shift in the working space ; in the working space , equations (140a-140c) are set up that each put the difference between at least two representations (130a-130d) of response spectra (120a-120d) into a relationship with the product of a representation of the sought Raman spectrum in the working space with a linear combination of shift factors ; from the equations (140a-140c), the representation of the sought Raman spectrum in the working space is determined as a solution, wherein three or more response spectra (120a-120d) are used.
Hinge device for a door (D) of a chest appliance (A) having in an operative condition, the respective opening lying on a horizontal geometric plane and the respective door (D) rotating around a horizontal axis between a closure condition, in which said door (D) is horizontal and closes the opening, and an opening condition (O) in which it is inclined compared to the opening, thus making it accessible; said device comprises a first member assigned to be fixed to a body of the appliance (A) and a second member assigned to be fixed to the door (D) of said appliance (A) and hinged to the first member by means of a horizontal hinge pin , the device comprises a transmission means having an end which is connected to the second member by means of first connection pivot means which is fixed to the second member parallel to and spaced from the hinge pin ; wherein the opposite end of the transmission means has a second connection pivot means which is bound to slide along respective slot means which are parallel to an operative direction approaching or leaving the hinge pin , said slot means are obtained in respective lateral walls of the first member ; such device further comprising resilient means assigned to apply to the transmission means an elastic force acting at least partially in said operative direction and towards the opening condition (O), said resilient means comprise at least one helicoidal spring acting in extension and having an end which is hooked to the hinge pin and the other end hooked directly or indirectly to the second connection pivot means .
A method for a User Equipment, UE, the method comprising: receiving , from a network node , parameters indicating a number of layers, a modulation order, a code rate and a number of allocated resource blocks; determining an effective number of resource elements based on a combination of higher layer signaling and Downlink Control Information, DCI, signaling; determining a transmission data block size, TDBS, based on the received parameters and the determined effective number of resource elements and based on N PRB ⋅ N RE ⋅ v ⋅ Q m ⋅ r where N PRB is the indicated number of allocated resource blocks, N RE is the determined number of effective resource elements, v is the indicated number of layers, Q m is the indicated modulation order and r is the indicated code rate; and transmitting data based on the determined transmission data block size. receiving , from a network node , parameters indicating a number of layers, a modulation order, a code rate and a number of allocated resource blocks; determining an effective number of resource elements based on a combination of higher layer signaling and Downlink Control Information, DCI, signaling; determining a transmission data block size, TDBS, based on the received parameters and the determined effective number of resource elements and based on N PRB ⋅ N RE ⋅ v ⋅ Q m ⋅ r where N PRB is the indicated number of allocated resource blocks, N RE is the determined number of effective resource elements, v is the indicated number of layers, Q m is the indicated modulation order and r is the indicated code rate; and transmitting data based on the determined transmission data block size.
An azimuth thruster for a marine vessel, comprising: an upper gear unit configured to be connected to a drive source; a lower gear unit configured to be connected to a propeller ; an input shaft drivingly connecting the upper gear unit and the lower gear unit , the input shaft including an upper crown wheel shaft and an inner lubricant channel extending in a longitudinal direction of the input shaft ; and a lubricant pump fluidly connected to the inner lubricant channel ; an azimuth unit connected to the upper gear unit via a separation plate , whereby said separation plate includes an opening configured to at least partially accommodate the upper crown wheel shaft , characterised in that an outer azimuth stem is connected to the separation plate via an outer ring body and an outer ring body is fixedly connected to an annular flange of the outer azimuth stem , wherein, when mounted on the marine vessel, the outer azimuth stem including the separation plate and the upper gear unit are non-rotatable, with respect to the marine vessel; a ring-shaped gearwheel rotatable mounted relative to the outer ring body via a plurality of suitable bearings , wherein the ring-shaped gearwheel is fixedly connected to an inner azimuth stem ; the outer ring body and the ring-shaped gearwheel together form a slewing bearing , wherein the outer ring body forms an outer race of the slewing bearing , and the ring-shaped gearwheel forms an inner race of the slewing bearing . an upper gear unit configured to be connected to a drive source; a lower gear unit configured to be connected to a propeller ; an input shaft drivingly connecting the upper gear unit and the lower gear unit , the input shaft including an upper crown wheel shaft and an inner lubricant channel extending in a longitudinal direction of the input shaft ; and a lubricant pump fluidly connected to the inner lubricant channel ; an azimuth unit connected to the upper gear unit via a separation plate , whereby said separation plate includes an opening configured to at least partially accommodate the upper crown wheel shaft , characterised in that an outer azimuth stem is connected to the separation plate via an outer ring body and an outer ring body is fixedly connected to an annular flange of the outer azimuth stem , wherein, when mounted on the marine vessel, the outer azimuth stem including the separation plate and the upper gear unit are non-rotatable, with respect to the marine vessel; a ring-shaped gearwheel rotatable mounted relative to the outer ring body via a plurality of suitable bearings , wherein the ring-shaped gearwheel is fixedly connected to an inner azimuth stem ; the outer ring body and the ring-shaped gearwheel together form a slewing bearing , wherein the outer ring body forms an outer race of the slewing bearing , and the ring-shaped gearwheel forms an inner race of the slewing bearing .
Intervertebral implant for insertion into an intervertebral disc space between two adjacent vertebral bodies of a human or animal spine , wherein the intervertebral implant has an implant top side , which defines a first vertebral body abutment face for abutting against a first vertebral body , and an implant bottom side , which defines a second vertebral body abutment face for abutting against a second vertebral body , wherein the intervertebral implant comprises a frame structure with at least two support elements , wherein the at least two support elements extend from the implant top side to the implant bottom side , and wherein the at least two support elements define support element longitudinal axes , which run transversely, in particular perpendicularly, to the first and/or second vertebral body abutment face , characterized in that the frame structure comprises a first self-enclosed inner frame part and a second self-enclosed inner frame part , and in that the at least two support elements connect the two inner frame parts to one another by a direct connection of the inner frame parts to the at least two support elements .
A refillable cosmetic container comprising: a refill container configured to store a content; and a container body selectively coupled with the refill container , wherein in the refill container , a fixing groove is formed, wherein in the container body , an elastic part is formed, which is provided to be elastically deformable by an external force applied by the refill container , and which is configured to be fixed in the fixing groove via the relative rotation between the refill container and the container body , wherein on the outer side of the refill container , at least one rotation protrusion is formed, and wherein in the inner side of the container body , a guide groove is formed, which is configured to guide the movement of the rotation protrusion . a refill container configured to store a content; and a container body selectively coupled with the refill container , wherein in the refill container , a fixing groove is formed, wherein in the container body , an elastic part is formed, which is provided to be elastically deformable by an external force applied by the refill container , and which is configured to be fixed in the fixing groove via the relative rotation between the refill container and the container body , wherein on the outer side of the refill container , at least one rotation protrusion is formed, and wherein in the inner side of the container body , a guide groove is formed, which is configured to guide the movement of the rotation protrusion .
A method for performing wireless communication by a first device , the method comprising: transmitting, to a second device through a physical sidelink control channel, PSCCH, a first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH, and a second SCI; and transmitting, to the second device through the PSSCH, the second SCI including first channel state information, CSI, request information representing that a first CSI report is requested, wherein transmission of a channel state information-reference signal, CSI-RS, is within transmission of the PSSCH, and wherein the first device is allowed to transmit a second CSI request information to the second device only if the first device successfully receives the first CSI report related to the previously transmitted first CSI request information , from the second device. transmitting, to a second device through a physical sidelink control channel, PSCCH, a first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH, and a second SCI; and transmitting, to the second device through the PSSCH, the second SCI including first channel state information, CSI, request information representing that a first CSI report is requested, wherein transmission of a channel state information-reference signal, CSI-RS, is within transmission of the PSSCH, and wherein the first device is allowed to transmit a second CSI request information to the second device only if the first device successfully receives the first CSI report related to the previously transmitted first CSI request information , from the second device.
A tangible, non-transitory memory configured to communicate with a controller, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: determining, by the controller, that a first enable signal is received by the controller from a vehicle management system (VMS); characterised by determining, by the controller, that a second enable signal is received by the controller from the VMS; and disabling, by the controller, the controller from control of the valve in response to both the first enable signal and the second enable signal. determining, by the controller, that a first enable signal is received by the controller from a vehicle management system (VMS); characterised by determining, by the controller, that a second enable signal is received by the controller from the VMS; and disabling, by the controller, the controller from control of the valve in response to both the first enable signal and the second enable signal.
Spring assembly for an unlocking mechanism of a vehicle seat, having a clip wire , a spring guide and a leg spring , wherein, in a installation state, the spring guide is arrangeable or is arranged in an axially displaceable but non-rotatable manner on a straight first clip section (2.1) of the clip wire , and wherein the spring guide is movable or is moved into an operating state, in which it is rotatable with respect to the first clip section (2.1), by axial displacement on the first clip section (2.1), characterized in that the clip wire has a second clip section (2.2) which extends substantially parallel to the straight first clip section (2.1) and which comprises a bulged portion (2.3) which is directed toward the first clip section (2.1).
A method of receiving data by a user equipment from a network in a wireless communication system, the method comprising: receiving a paging message; based on the paging message including downlink data for the user equipment, transmitting a radio resource control, RRC, connection request message including acknowledgement information informing an acknowledgement of the downlink data; and receiving an RRC connection reject message including information informing that the acknowledgement information is confirmed by the network, based on receiving the RRC connection reject message, terminating an RRC connection establishment procedure started by transmission of the RRC connection request message. receiving a paging message; based on the paging message including downlink data for the user equipment, transmitting a radio resource control, RRC, connection request message including acknowledgement information informing an acknowledgement of the downlink data; and receiving an RRC connection reject message including information informing that the acknowledgement information is confirmed by the network, based on receiving the RRC connection reject message, terminating an RRC connection establishment procedure started by transmission of the RRC connection request message.
Machining apparatus for machining workpieces, comprising: a base body , a guide element that can move along the base body , and a machining unit attached to the guide element , wherein the guide element is driven relative to the base body by means of a drive , which is provided on a mounting of the guide element on the base body , and at least one sensor is further attached to the guide element , a controller controls a drive variable of the drive on the basis of the detection result of the sensor, and the machining unit is attached to the guide element at least in part between the sensor and the drive , wherein the sensor is an acceleration sensor. a base body , a guide element that can move along the base body , and a machining unit attached to the guide element , wherein the guide element is driven relative to the base body by means of a drive , which is provided on a mounting of the guide element on the base body , and at least one sensor is further attached to the guide element , a controller controls a drive variable of the drive on the basis of the detection result of the sensor, and the machining unit is attached to the guide element at least in part between the sensor and the drive , wherein the sensor is an acceleration sensor.
An imprinting apparatus comprising: a first carrier for carrying a flexible stamp having an imprinting pattern ; and a second carrier movable relative to the first carrier and configured to carry a substrate , the substratehaving a resist layer , wherein the second carrier comprises: a chuck ; and an interface plate over the chuck, wherein the interface plate comprises an array of openings for receiving already-imprinted areas of one side of a substrate while an opposite side of the substrate is to be imprinted, and wherein the chuck comprises a fluid passage arrangement for coupling to the openings of the array. a first carrier for carrying a flexible stamp having an imprinting pattern ; and a second carrier movable relative to the first carrier and configured to carry a substrate , the substratehaving a resist layer , wherein the second carrier comprises: a chuck ; and an interface plate over the chuck, wherein the interface plate comprises an array of openings for receiving already-imprinted areas of one side of a substrate while an opposite side of the substrate is to be imprinted, and wherein the chuck comprises a fluid passage arrangement for coupling to the openings of the array. a chuck ; and an interface plate over the chuck, wherein the interface plate comprises an array of openings for receiving already-imprinted areas of one side of a substrate while an opposite side of the substrate is to be imprinted, and wherein the chuck comprises a fluid passage arrangement for coupling to the openings of the array.