mhurhangee/patent-ind-claim-en huggingface dataset:
Failure safety valve unit for a failure brake function (FN) of an electronically controllable pneumatic brake system for a vehicle , in particular a commercial vehicle , the brake system having a first control unit and a second control unit which are supplied with energy independently of one another and/or can at least partially replace one another in terms of their function, characterized in that the failure safety valve unit comprises: - a first failure brake valve designed as a monostable valve and a second failure brake valve designed as a monostable valve, and - a valve main line pneumatically connecting a main connection providing a first pressure (p1) and a failure brake connection , - the first failure brake valve and the second failure brake valve being pneumatically connected in series in the valve main line , and - the first failure brake valve being controllable by the first control unit and the second failure brake valve being controllable by the second control unit , and - the brake valves being open in an open position in the non-activated state, in particular currentless state, such that the first pressure (p1) present at the main connection is provided as a failure brake pressure (pN) at the failure brake connection such that - in the event of a fault (FF) and/or power failure (SF) and/or diagnosis (FT) of the control units , failure braking (BA) of the vehicle is triggered by the provision of the failure brake pressure (pN) at the failure brake connection by the brake system . - a first failure brake valve designed as a monostable valve and a second failure brake valve designed as a monostable valve, and - a valve main line pneumatically connecting a main connection providing a first pressure (p1) and a failure brake connection , - the first failure brake valve and the second failure brake valve being pneumatically connected in series in the valve main line , and - the first failure brake valve being controllable by the first control unit and the second failure brake valve being controllable by the second control unit , and - the brake valves being open in an open position in the non-activated state, in particular currentless state, such that the first pressure (p1) present at the main connection is provided as a failure brake pressure (pN) at the failure brake connection such that - in the event of a fault (FF) and/or power failure (SF) and/or diagnosis (FT) of the control units , failure braking (BA) of the vehicle is triggered by the provision of the failure brake pressure (pN) at the failure brake connection by the brake system .
A method implemented in a wireless transmit receive unit, WTRU, the method comprising: the WTRU attaching a first set of cyclic redundancy check, CRC, bits to a first subset of feedback bits comprised in a plurality of feedback bits; the WTRU performing channel coding on the first subset of feedback bits and the first set of CRC bits; the WTRU attaching a second set of CRC bits to a second subset of feedback bits comprised in the plurality of feedback bits; the WTRU performing channel coding on the second subset of feedback bits and the second set of CRC bits; and the WTRU sending a transmission comprising the channel coded first subset of feedback bits and first set of CRC bits and the channel coded second subset of feedback bits and second set of CRC bits. the WTRU attaching a first set of cyclic redundancy check, CRC, bits to a first subset of feedback bits comprised in a plurality of feedback bits; the WTRU performing channel coding on the first subset of feedback bits and the first set of CRC bits; the WTRU attaching a second set of CRC bits to a second subset of feedback bits comprised in the plurality of feedback bits; the WTRU performing channel coding on the second subset of feedback bits and the second set of CRC bits; and the WTRU sending a transmission comprising the channel coded first subset of feedback bits and first set of CRC bits and the channel coded second subset of feedback bits and second set of CRC bits.
Luminaire, comprising a light source , a primary lens for capturing the light emitted by the light source and emitting a light cone having a main emission direction , and an annular reflector having a central recess that deflects an outer part of the light cone obliquely to the main emission direction and allows an inner part of the light cone to pass through the recess , wherein the primary lens is designed to form all the light of the light source into an acute-angled emission cone, characterised in that the reflector is arranged so as to be spaced apart from said primary lens and retained by a sleeve-like, transparent housing part that surrounds the reflector and the primary lens , and in that a secondary lens is inserted into the recess of the reflector and is designed for widening, narrowing and/or shaping the non-reflected inner part of the light cone of the primary lens .
A knob cylinder , comprising a rotary knob and a profile cylinder , wherein the rotary knob is disposed freely rotatably with regard to a locking bit of the profile cylinder, and the rotary knob is formed to energize an actuator, which thereupon rotationally-operatively connects the rotary knob to the locking bit , such that, during rotation, the rotary knob moves along the locking bit , wherein the rotary knob includes a reader , wherein the reader is adapted to read data of an access data carrier, wherein the knob cylinder comprises a sensor device, wherein the sensor device with one part is inserted into the rotary knob of the knob cylinder , characterized in that • the sensor device includes - at least one pair of sensors , and - a counter-element , • wherein the counter-element and the at least one pair of sensors - are disposed to be movable in relation to each other along an essentially circular displacement path, and - are located opposite each other in such a way that detection areas of the sensors - respectively include a partial area of the displacement path, and - partially overlap each other in the area of the displacement path, • wherein the displacement path is partially located outside the detection areas of the at least one pair of sensors . • the sensor device includes - at least one pair of sensors , and - a counter-element , - at least one pair of sensors , and - a counter-element , • wherein the counter-element and the at least one pair of sensors - are disposed to be movable in relation to each other along an essentially circular displacement path, and - are located opposite each other in such a way that detection areas of the sensors - respectively include a partial area of the displacement path, and - partially overlap each other in the area of the displacement path, - are disposed to be movable in relation to each other along an essentially circular displacement path, and - are located opposite each other in such a way that detection areas of the sensors - respectively include a partial area of the displacement path, and - partially overlap each other in the area of the displacement path, • wherein the displacement path is partially located outside the detection areas of the at least one pair of sensors .
A transparent display device, comprising: a frame including a first opening and a second opening ; a transparent display panel disposed on the first opening of the frame ; and wherein the frame is installed to cover a front surface of a door unit of a prescribed product or separated from the front surface of the door unit of the prescribed product and wherein an extending frame extending from a rim of the frame in a direction of the door unit of the prescribed product and a lateral surface of a rim of the door unit of the prescribed product are jointed together, characterized in that : the transparent display device comprises a control module controlling the transparent display panel by being disposed on the second opening of the frame , an airgap is formed between a rear surface of the transparent display panel and the front surface of the door unit of the prescribed product, a ventilating unit configured to discharge heat generated by the control module , from the second opening into the airgap , is disposed in the second opening of the frame , a humidity sensor is configured to sense humidity within the airgap , and the control module is further configured to control the ventilating unit by receiving a sensing signal of the humidity sensor. a frame including a first opening and a second opening ; a transparent display panel disposed on the first opening of the frame ; and wherein the frame is installed to cover a front surface of a door unit of a prescribed product or separated from the front surface of the door unit of the prescribed product and wherein an extending frame extending from a rim of the frame in a direction of the door unit of the prescribed product and a lateral surface of a rim of the door unit of the prescribed product are jointed together, characterized in that : the transparent display device comprises a control module controlling the transparent display panel by being disposed on the second opening of the frame , an airgap is formed between a rear surface of the transparent display panel and the front surface of the door unit of the prescribed product, a ventilating unit configured to discharge heat generated by the control module , from the second opening into the airgap , is disposed in the second opening of the frame , a humidity sensor is configured to sense humidity within the airgap , and the control module is further configured to control the ventilating unit by receiving a sensing signal of the humidity sensor. the transparent display device comprises a control module controlling the transparent display panel by being disposed on the second opening of the frame , an airgap is formed between a rear surface of the transparent display panel and the front surface of the door unit of the prescribed product, a ventilating unit configured to discharge heat generated by the control module , from the second opening into the airgap , is disposed in the second opening of the frame , a humidity sensor is configured to sense humidity within the airgap , and the control module is further configured to control the ventilating unit by receiving a sensing signal of the humidity sensor.
Household cooling appliance comprising a housing , in which at least one compartment for food items is formed, and comprising a door device by which the compartment is openable or closable, the door device comprising an inner door and an outer door , wherein the outer door is arranged in front of the inner door in a closed state of the doors and wherein the inner door comprises a storage space for food items and an access opening for the storage space , wherein the access opening is openable or closable by the outer door , characterized in that the inner door comprises a cover stationary coupled to the inner door , whereby the cover is unmovable relative to the inner door , and wherein the cover is separate from a wall body of the inner door , wherein the cover is arranged on the side of the wall body that is opposite to the access opening so that the cover covers the storage space on a side facing away from the access opening .
A method for dynamically configuring buffers of a network device on a data plane of a telecommunications network, the method comprising: sending, by a controller , a software defined network, SDN, instruction to the network device on the data plane of the telecommunications network, the SDN instruction instructing a Control-to-Data-Plane Interface, CDPI, Agent to configure a buffer in the network device to store data packets for a specific type of traffic flow in accordance with a traffic handling policy, sending, by the controller, a further SDN instruction to the network device, wherein the further SDN instruction instructs the CDPI Agent to transition a state of the buffer to a storing state, wherein transitioning the state of the buffer to the storing state prevents the buffer from both storing new packets and sending existing packets over virtual ports bound to the buffer. sending, by a controller , a software defined network, SDN, instruction to the network device on the data plane of the telecommunications network, the SDN instruction instructing a Control-to-Data-Plane Interface, CDPI, Agent to configure a buffer in the network device to store data packets for a specific type of traffic flow in accordance with a traffic handling policy, sending, by the controller, a further SDN instruction to the network device, wherein the further SDN instruction instructs the CDPI Agent to transition a state of the buffer to a storing state, wherein transitioning the state of the buffer to the storing state prevents the buffer from both storing new packets and sending existing packets over virtual ports bound to the buffer.
A curing catalyst for epoxy resin, comprising an epoxy imidazole adduct having structural formula (I) below: (wherein R 1 is a group selected from hydrogen, phenyl, and C1-C17 alkyls, and R 2 and R 3 are each independently a group selected from hydrogen and C1-C6 alkyls).
System comprising an object to be exhibited and an exhibiting device comprising: - a space for receiving the object, defined by a window; - a user interface configured to receive a command; said command enabling to start an interaction with said object; wherein the receiving space comprises a cradle for supporting the object configured to place the object to be exhibited in a predetermined inclined position in the receiving space defined by the window and wherein said system comprises a robotic arm configured to interact physically with said object, as well as a processing unit in communication with the user interface configured to control a movement of the robotic arm , following a predefined physical interaction sequence with the object, said predefined sequence being determined by the command received from the user, comprising a storage memory which comprises different predefined sequences , said predefined sequences each corresponding to a different physical interaction with the object, and wherein said object is an electronic device. - a space for receiving the object, defined by a window; - a user interface configured to receive a command; said command enabling to start an interaction with said object; wherein the receiving space comprises a cradle for supporting the object configured to place the object to be exhibited in a predetermined inclined position in the receiving space defined by the window and wherein said system comprises a robotic arm configured to interact physically with said object, as well as a processing unit in communication with the user interface configured to control a movement of the robotic arm , following a predefined physical interaction sequence with the object, said predefined sequence being determined by the command received from the user, comprising a storage memory which comprises different predefined sequences , said predefined sequences each corresponding to a different physical interaction with the object, and wherein said object is an electronic device.
An apparatus for coloring hair comprising: a housing , for holding the packing system of the coloring mixture, for coloring hair; a lid , attached to said housing; a power spring , located underneath said lid, for pressuring said packing system, within said housing, for squeezing the color mixture from said packing system; a base having at least 2 compartments which receive and store some of said squeezed color mixture from said packing system; at least 2 tines , each having a conduit fixed within, and each tine is independently movably connected, at its upper part, to said base, for combing said hair and dividing said hair strands into groups of the required width while at the same time distributing and applying said coloring mixture to said hair roots of said separated strands through said conduits, fixed within said tines; and wherein each of said tines has a spring , for pushing it downwards, and wherein said conduit openings are aligned with their said respective base compartments for allowing said color mixture to flow from said packing system, pressured by said power spring, through the said compartments and through said conduits to the tips of said tines and onto said hair when said tines tips are pressed from below by said hair. a housing , for holding the packing system of the coloring mixture, for coloring hair; a lid , attached to said housing; a power spring , located underneath said lid, for pressuring said packing system, within said housing, for squeezing the color mixture from said packing system; a base having at least 2 compartments which receive and store some of said squeezed color mixture from said packing system; at least 2 tines , each having a conduit fixed within, and each tine is independently movably connected, at its upper part, to said base, for combing said hair and dividing said hair strands into groups of the required width while at the same time distributing and applying said coloring mixture to said hair roots of said separated strands through said conduits, fixed within said tines; and wherein each of said tines has a spring , for pushing it downwards, and wherein said conduit openings are aligned with their said respective base compartments for allowing said color mixture to flow from said packing system, pressured by said power spring, through the said compartments and through said conduits to the tips of said tines and onto said hair when said tines tips are pressed from below by said hair.
A proximity sensor , comprising: a fixing member configured for attachment on a mount ; and a proximity sensor body ; wherein the proximity sensor body is intended to be fixed with the fixing member , characterized in that the proximity sensor body has a first fixed area formed on one side, a detection face provided on the other, and a housing hole , the fixing member has: a securing portion ; and an axis portion that is housed in the housing hole of the proximity sensor body in a rotatable state, the securing portion is formed in a shape rotatable; has a wide width portion, and a narrow width portion and has a first abutting portion abutting on the first fixed area and a plurality of second abutting portions formed on the wide width portion, each of the plurality of second abutting portions has an inclined guide face that inclines in a circumferential direction with one rotational directional, and wherein the axis portion has a straight axis portion formed on a side of the head, and a stopper axis portion formed on a side opposite to the head across the straight axis portion and having a diameter larger than that of the straight axis portion , and the housing hole has a straight support wherein the straight axis portion is placed in slidable and rotatable state, and a stopper support wherein the stopper axis portion remains slidable.
Method for regulating an installation for producing containers , the installation comprising a unit for heating preforms and a unit for forming by blow moulding or stretch blow moulding, each container being produced from a preform made of plastics material, this method comprising the steps of: a) identifying a preform model; b) identifying a container model to be produced from the preform model; c) on the basis of these identifications, selecting from a database a production recipe associated with the preform model and the container model and comprising control setpoints for the installation ; d) setting the installation into operation as per the production recipe so as to produce a hollow body (3'; 2) from a preform according to the model; this method being characterized in that it comprises the steps of: e) measuring one or more actual properties of the hollow body (3'; 2) produced using the production recipe; f) comparing each actual property with a corresponding predetermined theoretical property; g) if at least one actual property is deemed to be non-compliant: h) adjusting the recipe; i) repeating steps d) to f) following the adjusted recipe; j) as soon as each actual property is deemed to be compliant, saving the adjusted production recipe in the database . a) identifying a preform model; b) identifying a container model to be produced from the preform model; c) on the basis of these identifications, selecting from a database a production recipe associated with the preform model and the container model and comprising control setpoints for the installation ; d) setting the installation into operation as per the production recipe so as to produce a hollow body (3'; 2) from a preform according to the model; e) measuring one or more actual properties of the hollow body (3'; 2) produced using the production recipe; f) comparing each actual property with a corresponding predetermined theoretical property; g) if at least one actual property is deemed to be non-compliant: h) adjusting the recipe; i) repeating steps d) to f) following the adjusted recipe; h) adjusting the recipe; i) repeating steps d) to f) following the adjusted recipe; j) as soon as each actual property is deemed to be compliant, saving the adjusted production recipe in the database .
A control interface for controlling a system, comprising a module comprising: a carrier having a top surface and an opposite bottom surface; an elongate window formed in, or adjacent, the carrier; an elongate array of light sources on the bottom surface of the carrier; a reflector arrangement for reflecting light from the array of light sources towards the window to escape from the top surface, such that a light path is formed between each light source and the window , with a portion of the light paths being parallel to the carrier , wherein the light sources are adapted to be turned on in response to a control signal; wherein the module further comprises: a user interface surface , comprising a track area for receiving touch input from a user, wherein the window is formed beneath the track area; and a touch sensor circuit beneath the track area , wherein the touch sensitive circuit comprises a touch sensor region on the top surface of the carrier ; and a controller adapted to control the light sources in dependence on a detected location of a touch input. a carrier having a top surface and an opposite bottom surface; an elongate window formed in, or adjacent, the carrier; an elongate array of light sources on the bottom surface of the carrier; a reflector arrangement for reflecting light from the array of light sources towards the window to escape from the top surface, such that a light path is formed between each light source and the window , with a portion of the light paths being parallel to the carrier , wherein the light sources are adapted to be turned on in response to a control signal; wherein the module further comprises: a user interface surface , comprising a track area for receiving touch input from a user, wherein the window is formed beneath the track area; and a touch sensor circuit beneath the track area , wherein the touch sensitive circuit comprises a touch sensor region on the top surface of the carrier ; and a user interface surface , comprising a track area for receiving touch input from a user, wherein the window is formed beneath the track area; and a touch sensor circuit beneath the track area , wherein the touch sensitive circuit comprises a touch sensor region on the top surface of the carrier ; and a controller adapted to control the light sources in dependence on a detected location of a touch input.