mhurhangee/patent-ind-claim-en huggingface dataset:
Traction drive of an industrial truck with an electric motor which has an output shaft , and with a spring-loaded braking device which acts on the output shaft of the electric motor , wherein the spring-loaded braking device has a brake rotor , which is connected to the output shaft for rotation therewith, and an axially displaceable pressure plate , wherein the pressure plate is acted upon by a spring device in the direction of a braking position of the spring-loaded braking device and by a release device , which acts counter to the spring device , in the direction of a release position of the spring-loaded braking device , wherein the spring-loaded braking device has a brake housing , wherein the pressure plate and the brake rotor are arranged in the brake housing , wherein the brake housing has, for receiving the pressure plate and the brake rotor , a receiving space in which the pressure plate and the brake rotor are arranged and installed, characterized in that the brake housing is provided with an adjustable brake stator of the spring-loaded braking device , against which the brake rotor can be applied upon by means of the axially displaceable pressure plate , wherein the brake stator of the brake housing is arranged adjustably on the brake housing , and in that a maintenance opening for determining the wear of the brake rotor is configured on the outer surface of the brake housing in the region of the brake rotor .
An apparatus for use in determining the capacity of a blood sample to clot, comprising: a well to receive the blood sample; a probe support fixed relative to the well; a probe supported within the well on the probe support, the probe including a wetted portion proximal to the well ; a deformable spring element coupled intermediate the wetted portion of the probe and the probe support; and a microelectromechanical displacement sensor disposed on the apparatus to measure movement of the probe , the microelectromechanical displacement sensor in engagement with the probe and configured to detect and measure one of the displacing force imparted to the probe and the resulting displacement of the probe occurring as a result of the contraction of the blood sample within the well; the apparatus configured such that an introduction of a volume of a blood sample into the well contacts the wetted portion of the probe with the blood sample; the apparatus further configured such that the clotting and contraction of the blood sample imparts a displacing force to the wetted portion of the probe and results in a displacement of the probe relative to the probe support, the microelectromechanical displacement sensor configured to determine said displacement ; and wherein the the apparatus is further configured to correlate the determined displacement of the probe to the capacity of the blood sample to clot. a well to receive the blood sample; a probe support fixed relative to the well; a probe supported within the well on the probe support, the probe including a wetted portion proximal to the well ; a deformable spring element coupled intermediate the wetted portion of the probe and the probe support; and a microelectromechanical displacement sensor disposed on the apparatus to measure movement of the probe , the microelectromechanical displacement sensor in engagement with the probe and configured to detect and measure one of the displacing force imparted to the probe and the resulting displacement of the probe occurring as a result of the contraction of the blood sample within the well; the apparatus configured such that an introduction of a volume of a blood sample into the well contacts the wetted portion of the probe with the blood sample; the apparatus further configured such that the clotting and contraction of the blood sample imparts a displacing force to the wetted portion of the probe and results in a displacement of the probe relative to the probe support, the microelectromechanical displacement sensor configured to determine said displacement ; and wherein the the apparatus is further configured to correlate the determined displacement of the probe to the capacity of the blood sample to clot.
A process for producing C 2 -C 4 carbonyl compounds from C 2 -C 4 olefins, characterized in that said process for producing C 2 -C 4 carbonyl compounds, in particular C 2 -C 4 aldehydes and ketones, is carried out in a gas phase by reacting nitrous oxide with a mixture of aliphatic C 2 -C 4 olefins and alkanes at a temperature of 300-550°C and a pressure of 0.1-10.1 MPa (1-100 atm).
A heat-dissipating car caliper cover, -the heat-dissipating car caliper cover comprising a cover body and a fixing member for fixing the cover body to a car caliper, wherein a first arc-shaped side plate is provided on an outer side of the cover body, a second arc-shaped side plate is provided on an inner side of the cover body, the fixing member is provided on the first arc-shaped side plate, a heat transmission assembly is provided on the first arc-shaped side plate, the fixing member comprising a first fixing member and a second fixing member , wherein the first fixing member and the second fixing member are respectively mounted on two sides of the first arc-shaped side plate ; characterized in that the heat transmission assembly comprises an elastic pressing sheet and a silicone sheet provided on the elastic pressing sheet; and when the cover body is fixed to the car caliper, the elastic pressing sheet is configured to bring in contact the silicone sheet with a pump body provided at an outer side wall of the car caliper, and to conduct heat to the cover body for heat dissipation; and wherein the first fixing member comprises a connection bracket , a first bent portion fixedly connected to the connection bracket, and a second bent portion cooperating with the first bent portion and configured to fix the connection bracket to the car caliper, wherein the first bent portion and the second bent portion are fixedly connected by a bolt. the fixing member comprising a first fixing member and a second fixing member , wherein the first fixing member and the second fixing member are respectively mounted on two sides of the first arc-shaped side plate ; characterized in that the heat transmission assembly comprises an elastic pressing sheet and a silicone sheet provided on the elastic pressing sheet; and when the cover body is fixed to the car caliper, the elastic pressing sheet is configured to bring in contact the silicone sheet with a pump body provided at an outer side wall of the car caliper, and to conduct heat to the cover body for heat dissipation; and wherein the first fixing member comprises a connection bracket , a first bent portion fixedly connected to the connection bracket, and a second bent portion cooperating with the first bent portion and configured to fix the connection bracket to the car caliper, wherein the first bent portion and the second bent portion are fixedly connected by a bolt.
A 12-carbon, unbranched, unsaturated fatty-diol having a single Δ5 double bond and having a hydroxy group at carbon number one (C-1) and having a hydroxy group at carbon number 3 (C-3), wherein a chiral center exists at C-3, and wherein the fatty-diol has a generic chemical formula according to Formula (II)
Method for managing an address in a local area network by means of an access device that allows access to a wide area communication network, an address allowing a device (31-34) on the local area network to communicate with other devices via the access device, said method comprising: - an operation, by the access device, of obtaining an access control rule to be applied, the aim of said rule being to block communication of data packets from at least one start time onwards and up to an end time; - an operation, by the access device, of sending (E1, I1) to at least one device on the local area network a DHCP message (M4, 05) relating to an address in the local area network, which address is associated with said device, said message carrying an item of information indicating to the device that said address is no longer valid from said start time onwards, the sent message allocating an address to the device for an allocation period that is determined on the basis of a period of authorized access up to the start time; said access device implementing at least one action that leads to an absence of a valid address for said device on the local area network until the end time of the access control rule has passed, the action consisting in sending a DHCP refusal to allocate an address, or a DHCP reply with a zero allocation period, in response to a request from the device on the local area network that is received after the start time. - an operation, by the access device, of obtaining an access control rule to be applied, the aim of said rule being to block communication of data packets from at least one start time onwards and up to an end time; - an operation, by the access device, of sending (E1, I1) to at least one device on the local area network a DHCP message (M4, 05) relating to an address in the local area network, which address is associated with said device, said message carrying an item of information indicating to the device that said address is no longer valid from said start time onwards, the sent message allocating an address to the device for an allocation period that is determined on the basis of a period of authorized access up to the start time;
An auto-location system for auto-locating a wheel in a vehicle, the auto-location system comprises: - a sensor module which comprises a sensor adapted for sensing a physical property of the tire when mounted in a tire or on an inner surface of the tire of the wheel, - an acquisition system adapted for determining when the part of the tire where the sensor is mounted hits the ground, and forms a contact patch with the ground, by analyzing data from the sensor for a perturbation which is induced by the contact patch, - and a communication system adapted for transmitting a wireless message, in which a unique identifier is embedded, a transmit delay after the part of the tire where the sensor is mounted hits the ground, characterized in that the transmit delay is a predefined delay or is determined in function of a speed of the vehicle. - a sensor module which comprises a sensor adapted for sensing a physical property of the tire when mounted in a tire or on an inner surface of the tire of the wheel, - an acquisition system adapted for determining when the part of the tire where the sensor is mounted hits the ground, and forms a contact patch with the ground, by analyzing data from the sensor for a perturbation which is induced by the contact patch, - and a communication system adapted for transmitting a wireless message, in which a unique identifier is embedded, a transmit delay after the part of the tire where the sensor is mounted hits the ground, characterized in that the transmit delay is a predefined delay or is determined in function of a speed of the vehicle.
A method of patterning a wavelength converting layer for LED arrays comprising depositing a wavelength converting layer onto a surface , the wavelength converting layer comprising a photoinitiator and a binder material; and patterning the wavelength converting layer by applying a nanoimprint lithography process to the wavelength converting layer, the nanoimprint lithography process comprising: applying a nanoimprint mold on the wavelength converting layer ; curing the wavelength converting layer such that the photoinitiator experiences decarboxylation ; and removing the nanoimprint mold from the wavelength converting layer after the curing . depositing a wavelength converting layer onto a surface , the wavelength converting layer comprising a photoinitiator and a binder material; and patterning the wavelength converting layer by applying a nanoimprint lithography process to the wavelength converting layer, the nanoimprint lithography process comprising: applying a nanoimprint mold on the wavelength converting layer ; curing the wavelength converting layer such that the photoinitiator experiences decarboxylation ; and removing the nanoimprint mold from the wavelength converting layer after the curing . applying a nanoimprint mold on the wavelength converting layer ; curing the wavelength converting layer such that the photoinitiator experiences decarboxylation ; and removing the nanoimprint mold from the wavelength converting layer after the curing .
Hearing device comprising - a first antenna ; - a first transceiver coupled to the first antenna and configured to wirelessly receive one or more audio streams from an audio system, the one or more audio streams including a first audio stream; - a primary processing unit adapted for processing an input signal according to a hearing prescription in order to alleviate a hearing loss; - an acoustic output transducer coupled to an output of the primary processing unit for conversion of an output signal from the primary processing unit into an audio output signal ; - at least one microphone; - a secondary processing unit with a first input coupled to an output of the first transceiver for receiving a first wireless input signal representative of the first audio stream from the first transceiver ; and - a position controller for detecting position data of the hearing device , the position controller having an output coupled to a position input of the secondary processing unit for sending a position control signal comprising an angular position value α 1 to the secondary processing unit ; the position controller being configured to select a value G 1 of a first gain based on the position data of the hearing device in combination with a control signal received by the microphone, the control signal being within a selected frequency range outside the audible range; wherein the angular position value α 1 is the angle between a direction of view of a user and the direction of the first transceiver ; wherein the secondary processing unit is configured to apply the first gain value to the first wireless input signal from the first transceiver ; and wherein the first gain value G 1 is applied if the angular position value α 1 is below a first threshold T 1.1 . - a first antenna ; - a first transceiver coupled to the first antenna and configured to wirelessly receive one or more audio streams from an audio system, the one or more audio streams including a first audio stream; - a primary processing unit adapted for processing an input signal according to a hearing prescription in order to alleviate a hearing loss; - an acoustic output transducer coupled to an output of the primary processing unit for conversion of an output signal from the primary processing unit into an audio output signal ; - at least one microphone; - a secondary processing unit with a first input coupled to an output of the first transceiver for receiving a first wireless input signal representative of the first audio stream from the first transceiver ; and - a position controller for detecting position data of the hearing device , the position controller having an output coupled to a position input of the secondary processing unit for sending a position control signal comprising an angular position value α 1 to the secondary processing unit ; the position controller being configured to select a value G 1 of a first gain based on the position data of the hearing device in combination with a control signal received by the microphone, the control signal being within a selected frequency range outside the audible range;
A sanitary napkin for women, comprising: a permeable inner sheet , which comes into contact with skin of a wearer to thus allow secretions to pass therethrough; an outer sheet fused to the inner sheet ; an absorption pad disposed between the inner sheet and the outer sheet to absorb the secretions passed through the inner sheet , wherein the outer sheet is a nanolaminate film composed of a nanomembrane formed by electrospinning a polymer solution and a strength-reinforcing nonwoven fabric laminated on one side of the nanomembrane , and characterized in that the nanomembrane of the nanolaminate film has a weight measured in accordance with ASTM D 3886 of 2.0 g/m 2 to 6.0 g/m 2 , a thickness measured in accordance with ASTM D 1777 of 4.0 μm to 18.0 μm, and air permeability measured in accordance with ASTM D 737-04 of 7.08 *10 -4 m 3 /s (1.5 CFM) or more at 125 Pa. a permeable inner sheet , which comes into contact with skin of a wearer to thus allow secretions to pass therethrough; an outer sheet fused to the inner sheet ; an absorption pad disposed between the inner sheet and the outer sheet to absorb the secretions passed through the inner sheet , wherein the outer sheet is a nanolaminate film composed of a nanomembrane formed by electrospinning a polymer solution and a strength-reinforcing nonwoven fabric laminated on one side of the nanomembrane , and characterized in that the nanomembrane of the nanolaminate film has a weight measured in accordance with ASTM D 3886 of 2.0 g/m 2 to 6.0 g/m 2 , a thickness measured in accordance with ASTM D 1777 of 4.0 μm to 18.0 μm, and air permeability measured in accordance with ASTM D 737-04 of 7.08 *10 -4 m 3 /s (1.5 CFM) or more at 125 Pa.
Water-using household appliance, in particular a dishwasher, comprising a cleaning container that provides a cleaning chamber and is intended for receiving items to be cleaned, a loading device for loading items to be cleaned with cleaning solution, and a heat pump device for heating cleaning solution, the heat pump device having a condenser and a collector , the condenser having two tubes which are arranged coaxially with one another so as to leave an annular gap , the inner tube surrounded by the annular gap being supplied with cleaning solution, and the annular gap provided by the outer tube being supplied with refrigerant, characterised in that the condenser and the collector are combined with one another to form one component, the outer tube having a portion which extends in the tube longitudinal direction and has an inner diameter which is enlarged compared with the rest of the inner diameter, or which is provided with at least one radial bulge that extends in the tube longitudinal direction .
A heat exchange pipe joint (J) for being fixedly installed to an installation plate (B1), wherein the heat exchange pipe joint (J) comprises a first pipe and a second pipe that are separately formed and in communication with each other, wherein the first pipe is detachably connectable to a second side (B12) of the installation plate (B1), and the second pipe is detachably connectable to a first side (B11) of the installation plate (B1); the installation plate (B1) is provided with a through-hole (B13) penetrating the installation plate (B1) in a first direction (D1), the first pipe comprises a first part and a second part that are connected to each other, the first part is locatable at the second side (B12) of the installation plate (B1), and the second part is configured to go through the through-hole (B13) and is connected to the second pipe ; the second pipe comprises a second main body and a second flange , and the second flange is connected to an end of the second main body and extends radially outward; the second flange comprises a receiving chamber in communication with the second main body , and the second flange is detachably connectable to the first side (B11) of the installation plate (B1); the second part of the first pipe is inserted into the receiving chamber of the second flange ; characterized in that the heat exchange pipe joint (J) further comprises a second sealing member , the second sealing member is sleeved on an outer circumference of the second part , and the second sealing member is configured to be compressed and sandwiched between the installation plate (B1) and the second flange . the heat exchange pipe joint (J) comprises a first pipe and a second pipe that are separately formed and in communication with each other, wherein the first pipe is detachably connectable to a second side (B12) of the installation plate (B1), and the second pipe is detachably connectable to a first side (B11) of the installation plate (B1); the installation plate (B1) is provided with a through-hole (B13) penetrating the installation plate (B1) in a first direction (D1), the first pipe comprises a first part and a second part that are connected to each other, the first part is locatable at the second side (B12) of the installation plate (B1), and the second part is configured to go through the through-hole (B13) and is connected to the second pipe ; the second pipe comprises a second main body and a second flange , and the second flange is connected to an end of the second main body and extends radially outward; the second flange comprises a receiving chamber in communication with the second main body , and the second flange is detachably connectable to the first side (B11) of the installation plate (B1); the second part of the first pipe is inserted into the receiving chamber of the second flange ; characterized in that the heat exchange pipe joint (J) further comprises a second sealing member , the second sealing member is sleeved on an outer circumference of the second part , and the second sealing member is configured to be compressed and sandwiched between the installation plate (B1) and the second flange .
A method for drying a thin film stack having a thin film located on a substrate , said method comprising: conveying said thin film stack past a flashlamp ; and irradiating said thin film stack with a composite light pulse to remove solvent from said thin film , wherein said composite light pulse is formed by a plurality of micropulses from said flashlamp , characterized in that a total time duration of said composite light pulse is shorter than a total thermal equilibration time of said thin film stack, wherein the thermal equilibrium time of a layer of material is calculated by τ m = cρx 2 4 κ where c is the specific heat of the material, ρ is the mass density of the material, x is the thickness of the material and κ is the thermal conductivity of the material, and wherein said total thermal equilibrium time of said thin film stack is τ = τ 1 + τ 2 2 wherein τ 1 and τ 2 are thermal equilibrium time of said thin film and substrate respectively. conveying said thin film stack past a flashlamp ; and irradiating said thin film stack with a composite light pulse to remove solvent from said thin film , wherein said composite light pulse is formed by a plurality of micropulses from said flashlamp , characterized in that a total time duration of said composite light pulse is shorter than a total thermal equilibration time of said thin film stack, wherein the thermal equilibrium time of a layer of material is calculated by τ m = cρx 2 4 κ where c is the specific heat of the material, ρ is the mass density of the material, x is the thickness of the material and κ is the thermal conductivity of the material, and wherein said total thermal equilibrium time of said thin film stack is τ = τ 1 + τ 2 2 wherein τ 1 and τ 2 are thermal equilibrium time of said thin film and substrate respectively.