mhurhangee/ep-ind-claims huggingface dataset:
An integrated microphone-speaker device, wherein the device comprises a control unit; a main sound chamber; a microphone assembly connected to an outer side wall of the main sound chamber, wherein the microphone assembly comprises a microphone and a microphone holder, the microphone is fixed on the microphone holder, the microphone holder is connected to the main sound chamber, and the microphone holder is made of a soft material; at least two speakers being symmetrically arranged on two sides of the main sound chamber in opposite directions, wherein the microphone is connected to the main sound chamber within a distance of 0 to 20mm from an axis or plane of symmetry of the at least two speakers; and wherein the microphone and the at least two speakers are respectively electrically connected with the control unit, characterized in that the at least two speakers have exactly the same specification and same performance, wherein vibration generated by the at least two symmetrically arranged speakers is cancelled at the location of the axis or plane of symmetry of the at least two speakers. a control unit; a main sound chamber; a microphone assembly connected to an outer side wall of the main sound chamber, wherein the microphone assembly comprises a microphone and a microphone holder, the microphone is fixed on the microphone holder, the microphone holder is connected to the main sound chamber, and the microphone holder is made of a soft material; at least two speakers being symmetrically arranged on two sides of the main sound chamber in opposite directions, wherein the microphone is connected to the main sound chamber within a distance of 0 to 20mm from an axis or plane of symmetry of the at least two speakers; and wherein the microphone and the at least two speakers are respectively electrically connected with the control unit, characterized in that the at least two speakers have exactly the same specification and same performance, wherein vibration generated by the at least two symmetrically arranged speakers is cancelled at the location of the axis or plane of symmetry of the at least two speakers.
A MDM2i for use in the treatment of cancer, wherein MDM2i is to be administered to a subject intermittently in at least 3 consecutive doses and the period between each two consecutive doses is at least 3 weeks and not longer than 60 days.
A thermal indicator for visually determining and monitoring temperature of cooking food, comprising: a) a body having an orifice; b) indicating means capable of moving through the orifice relative to the body from a first position to a second position for visually indicating when a preselected temperature has been reached; and that the food is cooked to a desired temperature and doneness; and c) a switching medium is contained within the body for allowing said indicating means to dynamically indicate when said preselected temperature has been reached, wherein said switching medium comprises at least one material that, when at a temperature below the predetermined temperature, maintains said indicating means at the first position, and that, when at a temperature equal to or higher than the predetermined temperature, yields to permit release of said indicating means to the second position visually indicating that the food is cooked to a desired temperature and doneness, whereby the switching medium undergoes a thermal transition from a solid phase to a liquid phase at the predetermined temperature indicating the food is cooked to a desired temperature and doneness, characterized in that the switching medium is a thermopolymeric switching medium, and the thermopolymeric switching medium is an organic polymer. a) a body having an orifice; b) indicating means capable of moving through the orifice relative to the body from a first position to a second position for visually indicating when a preselected temperature has been reached; and that the food is cooked to a desired temperature and doneness; and c) a switching medium is contained within the body for allowing said indicating means to dynamically indicate when said preselected temperature has been reached, wherein said switching medium comprises at least one material that, when at a temperature below the predetermined temperature, maintains said indicating means at the first position, and that, when at a temperature equal to or higher than the predetermined temperature, yields to permit release of said indicating means to the second position visually indicating that the food is cooked to a desired temperature and doneness, whereby the switching medium undergoes a thermal transition from a solid phase to a liquid phase at the predetermined temperature indicating the food is cooked to a desired temperature and doneness, characterized in that the switching medium is a thermopolymeric switching medium, and the thermopolymeric switching medium is an organic polymer.
A sanding machine for sanding/finishing/brushing components made of wood, metal or the like; each component having an upper face and a lower face, which are substantially parallel to one another, a front face and a rear face as well as two side faces; the sanding machine comprising at least one sanding unit (12, 13) comprising, in turn, a sanding device for sanding/finishing a side face of the component; and a feeding device, which defines a support surface for at least one component and is designed to feed the component in a first direction, which is parallel to the support surface, and along a path extending through the sanding unit (12, 13); the sanding device comprising at least two pulleys, actuator means to move the pulleys around respective longitudinal axes, an abrasive belt, which is wound in a ring shape around the pulleys, and a pushing roller, which is mounted between the pulleys and is movable from and to an operating position pushing the abrasive belt against the side face of the component; and being characterized in that the sanding device further comprises a synchronizing roller, which is in contact with the pushing roller and with at least one pulley so as to synchronize the rotation speeds of the pushing roller and of the pulley with one another.
A power module comprising: a base plate; a ceramic insulating substrate bonded on the base plate, comprising a ceramic base material and metal layers (8,9) provided to both surfaces of the ceramic base material; and a semiconductor element bonded on the ceramic insulating substrate, wherein a surface of the base plate on a side opposite to the ceramic insulating substrate has a warp with a convex shape, and a linear thermal expansion coefficient α1 (× 10 -6 /K) of the base plate and a linear thermal expansion coefficient α2 (× 10 -6 /K) of the ceramic insulating substrate when a temperature decreases from 150°C to 25°C satisfy the following Expression: α 1 − α 2 α 1 + α 2 / 2 × 100 ≤ 10 a metal layer (8a, 9a) being formed between the ceramic base material and the metal layers (8b,9b). a base plate; a ceramic insulating substrate bonded on the base plate, comprising a ceramic base material and metal layers (8,9) provided to both surfaces of the ceramic base material; and a semiconductor element bonded on the ceramic insulating substrate, wherein a surface of the base plate on a side opposite to the ceramic insulating substrate has a warp with a convex shape, and a linear thermal expansion coefficient α1 (× 10 -6 /K) of the base plate and a linear thermal expansion coefficient α2 (× 10 -6 /K) of the ceramic insulating substrate when a temperature decreases from 150°C to 25°C satisfy the following Expression: α 1 − α 2 α 1 + α 2 / 2 × 100 ≤ 10 a metal layer (8a, 9a) being formed between the ceramic base material and the metal layers (8b,9b).
A method of transmitting channel state information, which is transmitted by a user equipment in a multi-cell cooperative wireless communication system, comprising the steps of: determining a PMI for a serving cell among a plurality of Precoding Matrix Indexes, PMIs, for the serving cell; constructing a PMI information for a cooperative cell based on the PMI for the serving cell; and transmitting the PMI for the serving cell and the PMI information for the cooperative cell to the serving cell, wherein the plurality of PMIs are distinguished by a plurality of PMI subsets, wherein PMIs contained in each of a plurality of the PMI subsets are orthogonal to each other, wherein the PMI information for the cooperative cell comprises a first indicator indicating one PMI subset of the plurality of PMI subsets as a PMI subset for the cooperative cell and a second indicator indicating at least one PMI in the indicated PMI subset as a PMI for the cooperative cell, wherein the at least one PMI comprises a PMI i satisfying the following formula 1: CQI i − a first CQI index ≥ Δ, wherein the CQI i is a CQI index, under an assumption that the cooperative cell transmits a signal using the PMI i and the first CQI index is determined under an assumption that there exists a random interference from the cooperative cell while a signal is transmitted by the serving cell using the PMI for the serving cell, and wherein Δ is a preset threshold value. determining a PMI for a serving cell among a plurality of Precoding Matrix Indexes, PMIs, for the serving cell; constructing a PMI information for a cooperative cell based on the PMI for the serving cell; and transmitting the PMI for the serving cell and the PMI information for the cooperative cell to the serving cell, wherein the plurality of PMIs are distinguished by a plurality of PMI subsets, wherein PMIs contained in each of a plurality of the PMI subsets are orthogonal to each other, wherein the PMI information for the cooperative cell comprises a first indicator indicating one PMI subset of the plurality of PMI subsets as a PMI subset for the cooperative cell and a second indicator indicating at least one PMI in the indicated PMI subset as a PMI for the cooperative cell, wherein the at least one PMI comprises a PMI i satisfying the following formula 1: CQI i − a first CQI index ≥ Δ, wherein the CQI i is a CQI index, under an assumption that the cooperative cell transmits a signal using the PMI i and the first CQI index is determined under an assumption that there exists a random interference from the cooperative cell while a signal is transmitted by the serving cell using the PMI for the serving cell, and wherein Δ is a preset threshold value.
A repair alarm device for smart valve, comprising: a connection unit, adapted to be connected to a valve stem of a smart valve and provided with a sensing target moving with the valve stem; wherein the connection unit includes a connection rod, a connection base and a housing; a control unit, provided with at least one sensing element; and a driver unit, connected to the connection unit, and driving the connection unit to allow for the valve stem to be driven by the connection unit; wherein a movement of the valve stem between the sensing target and the sensing element is detected by the sensing element to generate a sensing signal, whereby the control unit generates a usage status information according to the sensing signal characterized in that a temperature sensing unit is disposed inside the connection rod and in use is close to the valve stem, so the temperature sensing unit can detect the temperature of the connection rod. a connection unit, adapted to be connected to a valve stem of a smart valve and provided with a sensing target moving with the valve stem; wherein the connection unit includes a connection rod, a connection base and a housing; a control unit, provided with at least one sensing element; and a driver unit, connected to the connection unit, and driving the connection unit to allow for the valve stem to be driven by the connection unit; wherein a movement of the valve stem between the sensing target and the sensing element is detected by the sensing element to generate a sensing signal, whereby the control unit generates a usage status information according to the sensing signal characterized in that a temperature sensing unit is disposed inside the connection rod and in use is close to the valve stem, so the temperature sensing unit can detect the temperature of the connection rod.
Tower for a wind turbine comprising a tower section having a tower wall and an inwardly projecting base flange, wherein a self-supporting tower installation for the tower segment is provided, which comprises at least three upright columns (16, 34) extending parallel and spaced apart from the tower wall and cross beams interconnecting the upright columns, characterised in that the upright columns (16, 34) are distributed over the circumference of the base flange and supported on the base flange.
Hot drinking water generating facility with at least one building room, with at least one outlet fitting such as a water tap and/or shower head and with a hot drinking water generating unit for installing/arranging in the building room and for generating hot drinking water with a hot drinking water storage tank for storing and dispensing hot drinking water, in particular service water, to the outlet fitting, wherein at least one drinking water heat exchanger device is provided for heating the drinking water of the hot drinking water storage tank, wherein at least the hot drinking water storage tank and the drinking water heat exchanger device are arranged within a housing and/or a casing, wherein at least on the housing and/or the casing at least one building room heating surface is provided for heating the building room, wherein the housing and/or the casing comprises at least one air inflow opening for the inflow of room air of the building room and at least one air outflow opening for the outflow of room air into the building room, wherein the hot drinking water generating unit is designed as a space heating element of the building room/living room, wherein at least one cooling unit (4, 19) is provided for cooling a cooling surface, wherein the building room heating surface is designed as the cooling surface of the cooling unit (4, 19) and wherein the building room is designed as a living room, so that the hot drinking water generating unit is installed/arranged in the living room (14, 15, 16), and wherein the outlet fitting is arranged in a kitchen room and/or bath/washroom (14, 15) and/or toilet room (14, 15).
A waterwheel suspending device that is a support device transversely provided so as to bridge a water channel to suspend a waterwheel, characterized in that the device comprises a combination of a plurality of spliceable suspension main bodies configured to be joined in series via a joining element and arranged in parallel on an upstream side and a downstream side of the water channel, respectively, a plurality of footings for horizontally supporting respective end portions of the suspension main bodies outside the water channel and a floor plate stretched across upper surfaces of the suspension main bodies, wherein the joining element fits in a pipe hole of the suspension main body.
A method for the reparation of flow channel segments of a flow machine, in particular an aircraft engine, which comprises the following steps: a. providing a single crystal flow channel segment or directionally solidified flow channel segment, which has a length, a width and a thickness, wherein the length and the width extend along the flow channel and are both larger than the thickness, and wherein the width and the length delimit a surface, which represents a delimiting surface of a flow channel and has damage caused by operation, b. cleaning the delimiting surface in order to remove contaminants, characterized in that the method also comprises the following steps: c. remelting at least a part of the delimiting surface within a surface region in such a way that molten material epitaxially solidifies in an inner region, which is directed towards the unmolten material, and forms a structural region, in which the single crystal structure or directionally solidified structure is maintained, and that molten material polycrystalline solidifies in an outer region, which is directed towards the flow channel and which forms an edge region, d. removing the case region. a. providing a single crystal flow channel segment or directionally solidified flow channel segment, which has a length, a width and a thickness, wherein the length and the width extend along the flow channel and are both larger than the thickness, and wherein the width and the length delimit a surface, which represents a delimiting surface of a flow channel and has damage caused by operation, b. cleaning the delimiting surface in order to remove contaminants, c. remelting at least a part of the delimiting surface within a surface region in such a way that molten material epitaxially solidifies in an inner region, which is directed towards the unmolten material, and forms a structural region, in which the single crystal structure or directionally solidified structure is maintained, and that molten material polycrystalline solidifies in an outer region, which is directed towards the flow channel and which forms an edge region, d. removing the case region.
A process for producing acrylic acid, the process comprising: a step 1 of separating a first low-boiling-point material including acetaldehyde (ACHO) and a first high-boiling-point material including acrylic acid by adding a first absorbent to a reaction product of a bio-raw material and cooling the result; a step 2 of separating a first incompressible material and a second low-boiling-point material including acetaldehyde (ACHO) by adding a second absorbent to the first low-boiling-point material including acetaldehyde (ACHO) and cooling the result; a step 3 of heating the second low-boiling-point material including acetaldehyde (ACHO); a step 4 of separating the heated second low-boiling-point material including acetaldehyde (ACHO) to acetaldehyde (ACHO) and the second absorbent; and a step 5 of producing acrylic acid by purifying the first high-boiling-point material including acrylic acid. a step 1 of separating a first low-boiling-point material including acetaldehyde (ACHO) and a first high-boiling-point material including acrylic acid by adding a first absorbent to a reaction product of a bio-raw material and cooling the result; a step 2 of separating a first incompressible material and a second low-boiling-point material including acetaldehyde (ACHO) by adding a second absorbent to the first low-boiling-point material including acetaldehyde (ACHO) and cooling the result; a step 3 of heating the second low-boiling-point material including acetaldehyde (ACHO); a step 4 of separating the heated second low-boiling-point material including acetaldehyde (ACHO) to acetaldehyde (ACHO) and the second absorbent; and a step 5 of producing acrylic acid by purifying the first high-boiling-point material including acrylic acid.
A food processor driven by an electric motor, with an agitator vessel and an agitator in the agitator vessel, if necessary with a heater, further with a volatile or nonvolatile memory, in which files useful for application can be stored, wherein a loudspeaker is further provided in the food processor, and that a file be usable for sound generation by the loudspeaker, for example for voice or music or tone output, characterized in that an output can be triggered by the response of a motion detector arranged in the food processor.
Method for emission of a digital signal, s, wherein an electronic emission system performs the steps according to which: - a vector s corresponding to the digital signal to be transmitted, s, taking the form of a sequence of N symbols is projected onto a vectorial space, said vectorial space being orthogonal to at least one non-zero vector q corresponding to a sequence of symbols defining a digital watermark, - the digital signal resulting from the projection, r p, is sent to an electronic reception system able to authenticate the received digital signal, r RX, by verifying the orthogonality of a vector r RX, corresponding to said received digital signal, r RX, and taking the form of a sequence of symbols, relative to at least the non-zero vector q corresponding to the sequence of symbols defining the digital watermark. - a vector s corresponding to the digital signal to be transmitted, s, taking the form of a sequence of N symbols is projected onto a vectorial space, said vectorial space being orthogonal to at least one non-zero vector q corresponding to a sequence of symbols defining a digital watermark, - the digital signal resulting from the projection, r p, is sent to an electronic reception system able to authenticate the received digital signal, r RX, by verifying the orthogonality of a vector r RX, corresponding to said received digital signal, r RX, and taking the form of a sequence of symbols, relative to at least the non-zero vector q corresponding to the sequence of symbols defining the digital watermark.
A two-wheeled motor vehicle, comprising: a vehicle body frame with a main frame and a seat frame disposed at a rearward position of the main frame; and a first antenna (20, 20'), characterized in that a metal structure (11, 15, 16, 30, 31) is mounted on the main frame, the first antenna (20, 20') is disposed outside the main frame in a vehicle width direction, the two-wheeled motor vehicle, comprises a second antenna (21,21') outside the main frame and opposite to the first antenna (20, 20') with at least the metal structure (11, 15, 16, 30, 31) arranged between the first antenna (20, 20') and the second antenna (21,21'), and the two-wheeled motor vehicle is configured to perform road-to-vehicle communications with roadside units and vehicle-to-vehicle communications with other vehicles using the first antenna (20, 20') and the second antenna (21, 21'). a vehicle body frame with a main frame and a seat frame disposed at a rearward position of the main frame; and a first antenna (20, 20'), characterized in that a metal structure (11, 15, 16, 30, 31) is mounted on the main frame, the first antenna (20, 20') is disposed outside the main frame in a vehicle width direction, the two-wheeled motor vehicle, comprises a second antenna (21,21') outside the main frame and opposite to the first antenna (20, 20') with at least the metal structure (11, 15, 16, 30, 31) arranged between the first antenna (20, 20') and the second antenna (21,21'), and the two-wheeled motor vehicle is configured to perform road-to-vehicle communications with roadside units and vehicle-to-vehicle communications with other vehicles using the first antenna (20, 20') and the second antenna (21, 21').