mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing an interior trim component comprising the steps consisting of: a) mixing polypropylene fibers, wood fibers and polyethylene terephthalate fibers in order to obtain a fiber mixture comprising polypropylene fibers, wood fibers and polyethylene terephthalate fibers, wherein the mixture comprises: - from 35 to 60% by weight of polypropylene fibers, - from 35 to 60% by weight of wood fibers, and - up to 30% by weight of polyethylene terephthalate fibers, then b) needling the fiber mixture in order to obtain a needled mat, c) heating the obtained needled mat at a temperature above the softening point of the polypropylene fibers, d) optionally laminating the heated needled mat with a decor layer, then e) press-molding the needled mat and the optional decor layer in order to obtain the interior trim component. a) mixing polypropylene fibers, wood fibers and polyethylene terephthalate fibers in order to obtain a fiber mixture comprising polypropylene fibers, wood fibers and polyethylene terephthalate fibers, wherein the mixture comprises: - from 35 to 60% by weight of polypropylene fibers, - from 35 to 60% by weight of wood fibers, and - up to 30% by weight of polyethylene terephthalate fibers, then - from 35 to 60% by weight of polypropylene fibers, - from 35 to 60% by weight of wood fibers, and - up to 30% by weight of polyethylene terephthalate fibers, then b) needling the fiber mixture in order to obtain a needled mat, c) heating the obtained needled mat at a temperature above the softening point of the polypropylene fibers, d) optionally laminating the heated needled mat with a decor layer, then e) press-molding the needled mat and the optional decor layer in order to obtain the interior trim component.
Press jacket for a press roll, especially for a press roll of a shoe press for dewatering of a web of fibrous material, especially a paper web, paperboard bed, tissue web or pulp web, or conveyor belt, especially for a machine for production or treatment of a web of fibrous material, especially paper machine, paperboard machine or tissue machine, wherein the press jacket or conveyor belt comprises at least one polyurethane-containing layer, wherein the at least one layer includes a polyurethane matrix having a prepolymer which is a reaction product of a polyisocyanate with a mixture of at least two different polyols, and at least one crosslinker, characterized in that the prepolymer is a reaction product of the diphenylmethane 4,4'-diisocyanate (MDI) with the mixture of the at least two different polyols polytetramethylene ether glycol (PTMEG) and polycarbonate polyol (PCDL)
Electronic system for authenticating a user of an electronic service, said system preferably comprising at least one server apparatus, the system being configured to store , for a number of users, a plurality of personal voiceprints each of which being linked with a dedicated visual, audiovisual or audio cue , for challenge-response authentication of the users, wherein the cues are user-selected, user-provided or user-created, pick , upon receipt of an authentication request associated with a claim of an identity of an existing user of said number of users, a subset of cues for which there are voiceprints of the existing user stored , and provide the cues for representation to the user as a challenge, receive sound data indicative of voice responses uttered by the user to the represented cues, characterized by said voice responses represented by the sound data being captured simultaneously utilizing both an air microphone and contact microphone preferably integrated in a common microphone apparatus, determine on the basis of the sound data, the represented cues and voiceprints linked therewith and the existing user, whether the response has been uttered by the existing user of said number of users, wherein the sound data indicative of the voice responses uttered to the represented cues are matched as concatenated against a concatenated voiceprint established based on the voiceprints linked with the represented cues and the existing user, and provided that this seems to be the case, elevate the authentication status of the user as the existing user, preferably regarding at least the current communication session, wherein the system is further configured to utilize estimated location of the user, based on data obtained indicative of location of the user or associated user terminal, as an additional authentication factor, wherein the status of the authentication factor is used in the selection of the subset of cues .
An occupancy detection system , the system comprising: - an antenna arrangement , comprising at least one antenna ; - a control device adapted to apply a radio-frequency transmission signal to the antenna arrangement and to receive a response signal from antenna arrangement ; and - a transmit array comprising a plurality of structured metallic layers disposed above each other and extending laterally, each two neighbouring metallic layers isolated from each other by an intermediate dielectric layer , wherein the antenna arrangement is adapted to transmit a radio-frequency transmission field through the transmit array in response to the transmission signal and to receive a radio-frequency response field through the transmit array to generate the response signal, and the transmit array is adapted to refract at least one of the transmission field and the response field , and characterized in that said occupancy detection system is configured for occupancy detection for at least one vehicle seat , in that said antenna arrangement comprises at least one transmit antenna (T1) and at least one receive antenna (R1, R2), said antenna arrangement being adapted to transmit a radio-frequency transmission field onto the at least one vehicle seat , and in that the transmit array comprises at least one receive section (3.2) adapted to focus a response field from a position of a vehicle seat to a position of a receive antenna (R1, R2). - an antenna arrangement , comprising at least one antenna ; - a control device adapted to apply a radio-frequency transmission signal to the antenna arrangement and to receive a response signal from antenna arrangement ; and - a transmit array comprising a plurality of structured metallic layers disposed above each other and extending laterally, each two neighbouring metallic layers isolated from each other by an intermediate dielectric layer , wherein the antenna arrangement is adapted to transmit a radio-frequency transmission field through the transmit array in response to the transmission signal and to receive a radio-frequency response field through the transmit array to generate the response signal, and the transmit array is adapted to refract at least one of the transmission field and the response field , and characterized in that said occupancy detection system is configured for occupancy detection for at least one vehicle seat , in that said antenna arrangement comprises at least one transmit antenna (T1) and at least one receive antenna (R1, R2), said antenna arrangement being adapted to transmit a radio-frequency transmission field onto the at least one vehicle seat , and in that the transmit array comprises at least one receive section (3.2) adapted to focus a response field from a position of a vehicle seat to a position of a receive antenna (R1, R2).
A system , comprising: a switch card comprising a Peripheral Component Interconnect Express, PCIe, interface , and at least one of a Serial Attached SCSI, SAS, interface or a serial ATA, SATA, interface; and a controller comprising a first computing node and a second computing node; wherein the first computing node is coupled to a first adapter card , and the second computing node is coupled to a second adapter card , and wherein each of the first adapter card , and the second adapter card supports at least one SAS HDD, least one SATA HDD, or at least one PCIe SSD; wherein the first adapter card is connected to the second adapter card and the first adapter card and the second adapter card are coupled to the switch card ; wherein the switch card is connected to a plurality of storage devices of the system ; wherein the controller is configured to communicate with the plurality of storage devices of the system through at least one of the first adapter card or the second adapter card , and the switch card , and wherein the controller is configured to detect a type of the adapter cards and send a signal to cause the switch card to switch the interfaces to support a corresponding type of the plurality of storage devices. a switch card comprising a Peripheral Component Interconnect Express, PCIe, interface , and at least one of a Serial Attached SCSI, SAS, interface or a serial ATA, SATA, interface; and a controller comprising a first computing node and a second computing node; wherein the first computing node is coupled to a first adapter card , and the second computing node is coupled to a second adapter card , and wherein each of the first adapter card , and the second adapter card supports at least one SAS HDD, least one SATA HDD, or at least one PCIe SSD; wherein the first adapter card is connected to the second adapter card and the first adapter card and the second adapter card are coupled to the switch card ; wherein the switch card is connected to a plurality of storage devices of the system ; wherein the controller is configured to communicate with the plurality of storage devices of the system through at least one of the first adapter card or the second adapter card , and the switch card , and wherein the controller is configured to detect a type of the adapter cards and send a signal to cause the switch card to switch the interfaces to support a corresponding type of the plurality of storage devices.
A quantitative phase analysis device , which is configured to perform quantitative phase analysis of crystalline phases contained in a sample based on a powder diffraction pattern of the sample, the quantitative phase analysis device comprising: a powder diffraction pattern acquisition unit configured to acquire the powder diffraction pattern of the sample; a qualitative phase analysis result acquisition unit configured to acquire information on a plurality of crystalline phases contained in the sample; a fitting function acquisition unit configured to acquire a fitting function for each of the plurality of crystalline phases; a whole-powder pattern fitting unit configured to execute whole-powder pattern fitting for the powder diffraction pattern of the sample by using the fitting function for each of the plurality of crystalline phases, to thereby acquire a fitting result; and a weight ratio calculation unit configured to calculate a weight ratio of the plurality of crystalline phases based on the fitting result, wherein the fitting function for each of the plurality of crystalline phases is one fitting function selected from the group consisting of a first fitting function that uses an integrated intensity obtained by whole-powder pattern decomposition, a second fitting function that uses an integrated intensity obtained by observation or calculation, and a third fitting function that uses a profile intensity obtained by observation or calculation. a powder diffraction pattern acquisition unit configured to acquire the powder diffraction pattern of the sample; a qualitative phase analysis result acquisition unit configured to acquire information on a plurality of crystalline phases contained in the sample; a fitting function acquisition unit configured to acquire a fitting function for each of the plurality of crystalline phases; a whole-powder pattern fitting unit configured to execute whole-powder pattern fitting for the powder diffraction pattern of the sample by using the fitting function for each of the plurality of crystalline phases, to thereby acquire a fitting result; and a weight ratio calculation unit configured to calculate a weight ratio of the plurality of crystalline phases based on the fitting result, wherein the fitting function for each of the plurality of crystalline phases is one fitting function selected from the group consisting of a first fitting function that uses an integrated intensity obtained by whole-powder pattern decomposition, a second fitting function that uses an integrated intensity obtained by observation or calculation, and a third fitting function that uses a profile intensity obtained by observation or calculation.
A container handling arm for a container filling system comprising: a gripper positioned at a distal end of the container handling arm and configured to retain a beverage container under a filling valve of the container filling system ; and a load cell positioned at a proximal end of the container handling arm and configured to output signals indicative of weights of a container and its contents when that container is retained by the gripper ; characterized in that the container handling arm comprises adjustable means to alter a ratio between a weight imposed on the gripper and a resulting weight imposed on the load cell . a gripper positioned at a distal end of the container handling arm and configured to retain a beverage container under a filling valve of the container filling system ; and a load cell positioned at a proximal end of the container handling arm and configured to output signals indicative of weights of a container and its contents when that container is retained by the gripper ; characterized in that the container handling arm comprises adjustable means to alter a ratio between a weight imposed on the gripper and a resulting weight imposed on the load cell .
An automated assay system comprising a robotic gripper arm and a robotic pipettor , and comprising at least the following additional components: a plate carrier , a tip box carrier, a plurality of plate shakers , an air cooling and handling system, an assay consumable storage unit for assay reagents, an assay consumable storage unit for immediate-use tips, an assay consumable storage unit for reserve tips, an assay consumable storage unit for plates, a platform , wherein the automated assay system has positions for affixing assay consumable storage units for tubes and troughs, and characterized in that the plate carrier , the tip box carrier, the plurality of plate shakers , the assay consumable storage unit for assay reagents, the assay consumable storage unit for immediate-use tips, the assay consumable storage unit for reserve tips, and the assay consumable storage unit for plates are located on said platform within the automated assay system in the following manner: the assay consumable storage unit for plates is attached to a front edge of the platform in a cantilevered manner, the plate carrier or the tip box carrier is located behind the assay consumable storage unit for plates, and the plurality of plate shakers are located toward a back of the platform , and wherein the air cooling and handling system is located on a back panel of the automated assay system . a plate carrier , a tip box carrier, a plurality of plate shakers , an air cooling and handling system, an assay consumable storage unit for assay reagents, an assay consumable storage unit for immediate-use tips, an assay consumable storage unit for reserve tips, an assay consumable storage unit for plates, a platform , wherein the automated assay system has positions for affixing assay consumable storage units for tubes and troughs, and characterized in that the plate carrier , the tip box carrier, the plurality of plate shakers , the assay consumable storage unit for assay reagents, the assay consumable storage unit for immediate-use tips, the assay consumable storage unit for reserve tips, and the assay consumable storage unit for plates are located on said platform within the automated assay system in the following manner: the assay consumable storage unit for plates is attached to a front edge of the platform in a cantilevered manner, the plate carrier or the tip box carrier is located behind the assay consumable storage unit for plates, and the plurality of plate shakers are located toward a back of the platform , and wherein the air cooling and handling system is located on a back panel of the automated assay system . the assay consumable storage unit for plates is attached to a front edge of the platform in a cantilevered manner, the plate carrier or the tip box carrier is located behind the assay consumable storage unit for plates, and the plurality of plate shakers are located toward a back of the platform , and wherein the air cooling and handling system is located on a back panel of the automated assay system .
A battery active material characterized by comprising a complex oxide containing Nb and Ti and an element M, wherein the molar ratio (M/Ti) of the element M to Ti in the active material satisfies the following formula (I): 0 < M/Ti ≤ 0.5 (I) the molar ratio (Nb/Ti) of Nb to Ti in the complex oxide containing Nb and Ti satisfies the following formula (II): 1 ≤ Nb/Ti ≤ 5 (II) and the element M is at least one selected from the group consisting of B, Na, Mg, Al, Si, S, P, K, Ca, Mo, W, Cr, Mn, Co, Ni, and Fe; wherein the complex oxide is represented by the formula Li x TiNb 2-y M y O 7+δ with 0 ≤ x ≤ 5 and -0.3 ≤ δ ≤ 0.3; characterized in that 0 < y ≤ 0.5, and the complex oxide has a melting point of 1350°C or less.
A method of demodulating an amplitude modulated radio signal comprising directing said modulated signal to both a phase detector and an edge detector , and using the respective output signals of the phase detector and edge detector to determine an end of a modulation symbol in said signal ; wherein the method further comprises: detecting a first output of the edge detector latching to a first output value after resetting the edge detector and monitoring for a second output of the edge detector latching to a second output value.
A channel equalization and tracking apparatus, wherein the apparatus comprises a Fourier transforming unit configured to transform a received time-domain signal multicarrier into a frequency-domain signal; a compensating and equalizing unit configured to perform phase compensation and frequency-domain equalization on the signal outputted by the Fourier transforming unit by using a multiplication, that is performed according to time delay information obtained from Clock Recovery and a channel equalizer coefficient, by combining a coefficient of phase rotation obtained from the time delay information and the channel equalizer coefficient into one, and acquire an equalized signal; a deciding unit configured to decide the equalized signal and convert the equalized signal into a value corresponding to a constellation point; and a channel tracking unit configured to track a channel according to the signal outputted by the Fourier transforming unit and an error signal obtained according to the equalized signal and the value acquired by the deciding unit .
A drawn composite tube assembly , comprising: a drawn functional tube formed of a first material, the drawn functional tube having a first inner surface and a first outer surface; and a drawn sacrificial tube formed of a second material, the drawn sacrificial tube having a second inner surface and a second outer surface; wherein: the drawn functional tube is disposed inside or outside the drawn sacrificial tube ; wherein the first material comprises a superalloy; wherein the second material is removable from the assembly by exposure to a corrosive media, wherein the first inner surface and the second outer surface are metallurgically bonded to each other. a drawn functional tube formed of a first material, the drawn functional tube having a first inner surface and a first outer surface; and a drawn sacrificial tube formed of a second material, the drawn sacrificial tube having a second inner surface and a second outer surface; wherein: the drawn functional tube is disposed inside or outside the drawn sacrificial tube ; wherein the first material comprises a superalloy; wherein the second material is removable from the assembly by exposure to a corrosive media, wherein the first inner surface and the second outer surface are metallurgically bonded to each other. the drawn functional tube is disposed inside or outside the drawn sacrificial tube ; wherein the first material comprises a superalloy; wherein the second material is removable from the assembly by exposure to a corrosive media, wherein the first inner surface and the second outer surface are metallurgically bonded to each other.
A method for use in a Narrowband Internet of Things network comprising a base station, eNB, , said method being characterized in comprising during connection of a user equipment, UE, to the Network : the eNB determining if a UE connection profile specific to the UE is available for the UE , and if so fetching the UE connection profile and the eNB configuring the connection with the UE according to the UE connection profile; the eNB monitoring a traffic pattern during the connection; and the eNB updating the UE connection profile based on the monitored traffic pattern and storing the UE connection profile at regular or irregular intervals, continuously as a change is detected/needed, and/or it may be done as the UE is released. the eNB determining if a UE connection profile specific to the UE is available for the UE , and if so fetching the UE connection profile and the eNB configuring the connection with the UE according to the UE connection profile; the eNB monitoring a traffic pattern during the connection; and the eNB updating the UE connection profile based on the monitored traffic pattern and storing the UE connection profile at regular or irregular intervals, continuously as a change is detected/needed, and/or it may be done as the UE is released.
A harvester head comprising a frame and a roller having a rotational axis and pivotably supported by the frame about at least one pivot axis nonparallel to the rotational axis , the roller configured to support a draper belt , characterized in that at least one tracking correction arm is coupled to the roller , the at least one tracking correction arm comprising a first belt bump stop to contact a first portion of the draper belt and a second belt bump stop to contact a second portion of the draper belt such that mistracking of the draper belt relative to the roller pivots the roller about the pivot axis until the draper belt is automatically moved back into a tracking relationship with the roller .